mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing two or more polynucleotide compositions, comprising: obtaining a polynucleotide library comprising a plurality of polynucleotides associated with a plurality of samples obtained from one or more subjects, wherein one or more polynucleotides comprises an expressed variable region polynucleotide, wherein said variable region is a variable nucleotide sequence that arises from a recombination event and comprises a V, J, and/or D region of an immunoglobulin or T cell receptor sequence, wherein each sample is associated with a cell, and wherein the polynucleotides associated with each sample are present in a separate container; and generating two or more polynucleotide compositions each comprising a polynucleotide from the plurality of polynucleotides and an identification region by coupling the polynucleotide to the identification region, wherein the sequence of each identification region is distinct from the sequence of the identification regions coupled to the other polynucleotides associated with the other samples in the library.
A polysaccharide having an anticoagulant activity, wherein a ratio of anti-factor Xa activity/anti-factor IIa activity is 1.5 or more, comprising a repetitive structure of a disaccharide unit shown in a following general formula (I): wherein R 1 to R 5 meet following conditions; R 1 , R 2 , R 4 and R 5 each independently represent a hydrogen or a sulfate group; R 3 represents a hydrogen, a sulfate group or an acetyl group; a rate of a sulfate group in R 2 in glucuronic acid residues is less than 15%; at least a part of R 3 is a sulfate group; a rate of the sulfate group in R 4 is 13% or more; and a rate of the sulfate group in R 5 is 50% or more, wherein 50% or more sugar chains in total number of sugar chains that constitute said polysaccharide are composed of a structure shown in a following general formula (II): wherein R 1 to R 5 are the same as R 1 to R 5 in said general formula (I); and n is 3 to 30 as an average value, wherein the number average molecular weight measured by gel permeation chromatography using pullulan as a standard is 12000 to 40000. R 1 to R 5 meet following conditions; R 1 , R 2 , R 4 and R 5 each independently represent a hydrogen or a sulfate group; R 3 represents a hydrogen, a sulfate group or an acetyl group; a rate of a sulfate group in R 2 in glucuronic acid residues is less than 15%; at least a part of R 3 is a sulfate group; a rate of the sulfate group in R 4 is 13% or more; and a rate of the sulfate group in R 5 is 50% or more, wherein 50% or more sugar chains in total number of sugar chains that constitute said polysaccharide are composed of a structure shown in a following general formula (II): wherein R 1 to R 5 are the same as R 1 to R 5 in said general formula (I); and n is 3 to 30 as an average value, R 1 to R 5 are the same as R 1 to R 5 in said general formula (I); and n is 3 to 30 as an average value, wherein the number average molecular weight measured by gel permeation chromatography using pullulan as a standard is 12000 to 40000.
Solenoid valve , comprising a housing body formed from a thermoplastic material, a coil, and a metal yoke arranged at least partially around the coil, wherein the metal yoke is designed as a component partially surrounding the housing body and is mechanically connected thereto, and wherein the housing body is designed as an injection-molded part which encloses the coil, characterized in that electrically insulating additives are added to the thermoplastic material to increase its thermal conductivity and the housing body is formed with ribs on its outer side.
A connection arrangement for mounting a first part to a second part with a sealed connection comprising at least one threaded headless bolt projecting through an opening in the first part and a cup nut comprising a head , a shaft and a flange , the flange being arranged between the head and the shaft , the shaft having an internal thread , wherein a gasket is arranged around an external shell of the shaft of the cup nut , wherein the cup nut is screwed to the bolt , wherein the gasket is arranged between the first part and the flange of the cup nut .
An additive manufacturing process comprising: pressurizing and heating a slurry ; flowing the pressurized heated slurry through a nozzle ; and depositing multiple layers of the slurry in a predetermined pattern, wherein the heating is performed in the nozzle ; characterised in that : the slurry includes a plastisol and a solid energetic material, wherein the plastisol is a mixture or suspension of polymeric particles in a liquid plasticizer; and by the heating commencing solvation of the polymeric particles by the liquid plasticizer. pressurizing and heating a slurry ; flowing the pressurized heated slurry through a nozzle ; and depositing multiple layers of the slurry in a predetermined pattern, wherein the heating is performed in the nozzle ; characterised in that : the slurry includes a plastisol and a solid energetic material, wherein the plastisol is a mixture or suspension of polymeric particles in a liquid plasticizer; and by the heating commencing solvation of the polymeric particles by the liquid plasticizer. the slurry includes a plastisol and a solid energetic material, wherein the plastisol is a mixture or suspension of polymeric particles in a liquid plasticizer; and by the heating commencing solvation of the polymeric particles by the liquid plasticizer.
A tunnel shuttle platform against wall , adapted for shuttling in water in a tunnel below a shield shaft , wherein the platform comprises a control device , a winch , a cable , and a carrying platform capable of floating on water, the control device is electrically connected with the winch , the carrying platform is electrically connected with the control device via the cable , one end of the cable is connected to the carrying platform , and another end of the cable is wound onto the winch , and the cable is controlled to release or retract by the control device such that the carrying platform can shuttle against an inner wall of the tunnel in a reciprocating motion; wherein the tunnel shuttle platform further comprises a cable support guide device comprising a positioning portion and a suspension portion that are connected to form an L-shaped structure, wherein the cable is arranged to slidably pass through the suspension portion , and wherein the suspension portion is provided with a guide wheel for supporting and guiding the cable ; characterized in that : the tunnel shuttle platform further comprises a support wheel pivotally connected to the suspension portion , wherein the support wheel and the guide wheel are configured at two opposite sides of the suspension portion , and wherein the suspension portion is configured to hang in the shield shaft by virtue of contact between the support wheel and a well wall of the shield shaft . wherein the tunnel shuttle platform further comprises a cable support guide device comprising a positioning portion and a suspension portion that are connected to form an L-shaped structure, wherein the cable is arranged to slidably pass through the suspension portion , and wherein the suspension portion is provided with a guide wheel for supporting and guiding the cable ; characterized in that : the tunnel shuttle platform further comprises a support wheel pivotally connected to the suspension portion , wherein the support wheel and the guide wheel are configured at two opposite sides of the suspension portion , and wherein the suspension portion is configured to hang in the shield shaft by virtue of contact between the support wheel and a well wall of the shield shaft .
Compressed air system pilot valve for a compressed air system of a utility vehicle a) comprising a control module which comprises a control module housing part , an electro-magnetic actuator , a control valve body (14; 42) being actuated by the electro-magnetic actuator and a control valve element (15; 36), wherein the control valve body (14; 42) and the control valve element (15; 36) can be placed in different relative control positions dependent on the electrical bias of the actuator wherein in the different relative control positions the control module controls or generates different control pressures and b) comprising a valve module which comprises a valve module housing part , a valve body and a valve element which can be placed in different relative valve positions wherein the valve module connects different ports to each other and/or closes different ports, c) wherein the valve module is pneumatically pilot-controlled by the control module in a way such that by a changed electrical bias of the actuator it is possible to induce a changed control position of the control module by which it is possible to induce a changed valve position of the valve module , d) wherein the control module housing part is mounted to the valve module housing part , characterised in that e) a bayonet connection is provided by which the control valve element (15; 36) is held on the control module housing part . a) comprising a control module which comprises a control module housing part , an electro-magnetic actuator , a control valve body (14; 42) being actuated by the electro-magnetic actuator and a control valve element (15; 36), wherein the control valve body (14; 42) and the control valve element (15; 36) can be placed in different relative control positions dependent on the electrical bias of the actuator wherein in the different relative control positions the control module controls or generates different control pressures and b) comprising a valve module which comprises a valve module housing part , a valve body and a valve element which can be placed in different relative valve positions wherein the valve module connects different ports to each other and/or closes different ports, c) wherein the valve module is pneumatically pilot-controlled by the control module in a way such that by a changed electrical bias of the actuator it is possible to induce a changed control position of the control module by which it is possible to induce a changed valve position of the valve module , d) wherein the control module housing part is mounted to the valve module housing part , characterised in that e) a bayonet connection is provided by which the control valve element (15; 36) is held on the control module housing part .
A linear movable rotary union comprising: a driving shaft comprising a plurality of fluid supply path ; a hollow middle housing surrounding an outside of the driving shaft and comprising a plurality of first through holes in a sidewall; a plurality of first sealing members provided between the middle housing and the driving shaft to prevent leakage of a fluid; a hollow outer housing surrounding an outside of the middle housing and comprising a plurality of second through holes in a sidewall; and a plurality of second sealing members provided between the middle housing and the outer housing to prevent leakage of the fluid, and wherein the driving shaft is provided to be capable of rotational motion in the middle housing , and the middle housing is provided to be capable of reciprocating motion in an axial direction in the outer housing , characterized in that the linear movable rotary union further comprises: a driving unit connected to one end portion of the driving shaft to allow the driving shaft to perform rotational motion with respect to the middle housing and connected to one end portion of the middle housing to allow the middle housing to perform reciprocating motion in the axial direction with respect to the outer housing , and wherein the driving unit comprises a linear guide connected to the middle housing . a driving shaft comprising a plurality of fluid supply path ; a hollow middle housing surrounding an outside of the driving shaft and comprising a plurality of first through holes in a sidewall; a plurality of first sealing members provided between the middle housing and the driving shaft to prevent leakage of a fluid; a hollow outer housing surrounding an outside of the middle housing and comprising a plurality of second through holes in a sidewall; and a plurality of second sealing members provided between the middle housing and the outer housing to prevent leakage of the fluid, and wherein the driving shaft is provided to be capable of rotational motion in the middle housing , and the middle housing is provided to be capable of reciprocating motion in an axial direction in the outer housing , characterized in that the linear movable rotary union further comprises: a driving unit connected to one end portion of the driving shaft to allow the driving shaft to perform rotational motion with respect to the middle housing and connected to one end portion of the middle housing to allow the middle housing to perform reciprocating motion in the axial direction with respect to the outer housing , and wherein the driving unit comprises a linear guide connected to the middle housing .
An artificial turf system comprising: a resilient layer ; an artificial grass layer comprising a substrate and pile fibres upstanding from the substrate; an infill layer , disposed on the substrate and interspersed between the pile fibres, the infill layer consisting of particles comprising smooth, hard granules having a mean size of between 2 mm and 4 mm and infill particulates, whereby the granules have a surface hardness of greater than Shore D 45, characterised in that the number of particles within the defined size range of between 2 and 4 mm is given by D90 for the upper limit and D80 for the lower limit. a resilient layer ; an artificial grass layer comprising a substrate and pile fibres upstanding from the substrate; an infill layer , disposed on the substrate and interspersed between the pile fibres, the infill layer consisting of particles comprising smooth, hard granules having a mean size of between 2 mm and 4 mm and infill particulates, whereby the granules have a surface hardness of greater than Shore D 45, characterised in that the number of particles within the defined size range of between 2 and 4 mm is given by D90 for the upper limit and D80 for the lower limit.
A drive system for a rotary device comprising an electric motor comprising a rotatable shaft , as well as a torque transmission system arranged to connect the shaft of the motor to the rotary device, the transmission system comprising: - a sleeve having an inner surface defining a conduit for receiving the shaft, the sleeve being arranged to be fastened to the rotary device; - an annular chamber defined in the sleeve , emerging on the outside of the sleeve by an emptying port , the chamber containing a fluid; and - a closing off element for closing off the emptying port able to block a flow of fluid outside the chamber , the fluid contained in the chamber being pressurized in a gripping configuration of the transmission system , such that the inner surface of the conduit exerts pressure on the shaft so as to block the rotation of the shaft relative to the sleeve , such that the transmission system transmits the torque from the shaft to the rotary device, the closing off element not blocking the flow of fluid outside the chamber in a released configuration of the transmission system , such that the inner surface does not exert pressure on the shaft , such that the rotation of the shaft relative to the sleeve is free, characterized in that the transmission system comprises a switching device suitable for switching the transmission system from the gripping configuration to the released configuration when an internal temperature in the electric motor exceeds a predetermined threshold temperature. - a sleeve having an inner surface defining a conduit for receiving the shaft, the sleeve being arranged to be fastened to the rotary device; - an annular chamber defined in the sleeve , emerging on the outside of the sleeve by an emptying port , the chamber containing a fluid; and - a closing off element for closing off the emptying port able to block a flow of fluid outside the chamber ,
A system comprising: an aspirated smoke detector ; a sampling pipe coupled to the aspirated smoke detector ; a blowout device coupled to the sampling pipe ; and a delay device coupled to the blowout device , wherein, responsive to the aspirated smoke detector detecting a triggering event, the aspirated smoke detector transmits a triggering event signal to the blowout device , wherein, responsive to the blowout device receiving the triggering event signal, the blowout device transmits a delay signal to the delay device , and wherein, responsive to the delay device receiving the delay signal, the delay device delays the blowout device from performing a blowout action in the sampling pipe by delaying transmission of an activation signal to the blowout device ; and an in-line filter coupled to the sampling pipe and located upstream of the blowout device in the sampling pipe ; a valve coupled to the blowout device ; and an alternate flow path pipe coupled to the valve and to the sampling pipe , wherein the blowout action includes the blowout device activating the valve and sending compressed air to the sampling pipe via the alternate flow path pipe while avoiding the in-line filter . an aspirated smoke detector ; a sampling pipe coupled to the aspirated smoke detector ; a blowout device coupled to the sampling pipe ; and a delay device coupled to the blowout device , wherein, responsive to the aspirated smoke detector detecting a triggering event, the aspirated smoke detector transmits a triggering event signal to the blowout device , wherein, responsive to the blowout device receiving the triggering event signal, the blowout device transmits a delay signal to the delay device , and wherein, responsive to the delay device receiving the delay signal, the delay device delays the blowout device from performing a blowout action in the sampling pipe by delaying transmission of an activation signal to the blowout device ; and an in-line filter coupled to the sampling pipe and located upstream of the blowout device in the sampling pipe ; a valve coupled to the blowout device ; and an alternate flow path pipe coupled to the valve and to the sampling pipe , wherein the blowout action includes the blowout device activating the valve and sending compressed air to the sampling pipe via the alternate flow path pipe while avoiding the in-line filter .
A method comprising: receiving, by a user equipment, UE, signaling from a base station, BS, the signaling including a radio resource control, RRC, signaling, wherein the signaling indicates a UE-specific hopping parameter ; and performing, by the UE, an uplink transmission based on the UE-specific hopping parameter , wherein the UE-specific hopping parameter indicates a number of resource blocks, RBs, to be cyclically shifted with regard to an assigned RB to derive a starting RB for a corresponding uplink transmission performed at a corresponding time period of a plurality of time periods, wherein the performing the uplink transmission comprises: performing a grant free, GF, uplink transmission. receiving, by a user equipment, UE, signaling from a base station, BS, the signaling including a radio resource control, RRC, signaling, wherein the signaling indicates a UE-specific hopping parameter ; and performing, by the UE, an uplink transmission based on the UE-specific hopping parameter , wherein the UE-specific hopping parameter indicates a number of resource blocks, RBs, to be cyclically shifted with regard to an assigned RB to derive a starting RB for a corresponding uplink transmission performed at a corresponding time period of a plurality of time periods,
A method in a wireless communication system performed by a User Equipment, UE, the method comprising: performing a radio frequency, RF, retuning for hopping from a first narrowband including a special subframe for Time Division Duplex, TDD, to a second narrowband including an uplink subframe for TDD, wherein the special subframe comprises a start symbol and a last symbol, and the uplink subframe comprises a start symbol and a last symbol, and wherein the UE performs the RF retuning and does not transmit in a period comprising the last symbol of the special subframe in the first narrowband, the period being shorter than a length of the special subframe; and transmitting Physical Uplink Shared Channel, PUSCH, from the start symbol of the uplink subframe. performing a radio frequency, RF, retuning for hopping from a first narrowband including a special subframe for Time Division Duplex, TDD, to a second narrowband including an uplink subframe for TDD, wherein the special subframe comprises a start symbol and a last symbol, and the uplink subframe comprises a start symbol and a last symbol, and wherein the UE performs the RF retuning and does not transmit in a period comprising the last symbol of the special subframe in the first narrowband, the period being shorter than a length of the special subframe; and transmitting Physical Uplink Shared Channel, PUSCH, from the start symbol of the uplink subframe.
Household appliance device with at least one inverter unit (10a; 10b), which comprises at least one inverter switch (12a, 14a, 16a, 18a; 12b, 14b, 16b, 18b), with at least one control unit (52a; 52b), which is provided to control the inverter unit (10a; 10b), and with at least one driver configuration unit (20a, 22a, 24a, 26a; 20b, 24b) assigned to the inverter switch (12a, 14a, 16a, 18a; 12b, 14b, 16b, 18b), which is provided to connect the inverter switch (12a, 14a, 16a, 18a; 12b, 14b, 16b, 18b) optionally with at least one of at least two inverter drivers (28a, 30a, 32a, 34a; 30b, 34b; 28c, 29c, 30c, 31c, 32c, 33c, 34c, 35c) of a different type, and which has at least one first driver connecting point , which is provided for connection to a first inverter driver (28a, 30a, 32a, 34a; 30b, 34b; 28c, 29c, 30c, 31c, 32c, 33c, 34c, 35c) of the inverter drivers (28a, 30a, 32a, 34a; 30b, 34b; 28c, 29c, 30c, 31c, 32c, 33c, 34c, 35c) and is embodied as a first module slot, and a second driver connecting point , which is provided for connection to a second inverter driver (28a, 30a, 32a, 34a; 30b, 34b; 28c, 29c, 30c, 31c, 32c, 33c, 34c, 35c) of the inverter drivers (28a, 30a, 32a, 34a; 30b, 34b; 28c, 29c, 30c, 31c, 32c, 33c, 34c, 35c) and is embodied as a second module slot, wherein the driver configuration unit (20a, 22a, 24a, 26a; 20b, 24b) is a configurable unit, which is provided to enable a change in the inverter driver (28a, 30a, 32a, 34a; 30b, 34b; 28c, 29c, 30c, 31c, 32c, 33c, 34c, 35c) assigned to the inverter switch (12a, 14a, 16a, 18a; 12b, 14b, 16b, 18b), wherein the change in the inverter driver (28a, 30a, 32a, 34a; 30b, 34b; 28c, 29c, 30c, 31c, 32c, 33c, 34c, 35c) is a manual and/or mechanical process, in which a change is made between at least the two inverter drivers (28a, 30a, 32a, 34a; 30b, 34b; 28c, 29c, 30c, 31c, 32c, 33c, 34c, 35c), characterised in that the driver configuration unit (20a, 22a, 24a, 26a; 20b, 24b) is provided to supply and/or enable at least two different electrical connections and/or conduction paths between the control unit (52a; 52b) and the inverter switch (12a, 14a, 16a, 18a; 12b, 14b, 16b, 18b).