mhurhangee/patent-ind-claim-en huggingface dataset:
A material testing system , comprising: a rotatable actuator configured to control an operator-accessible torsional testing component of the material testing system ; a virtual interlock configured to engage or disengage with the actuator to prevent or allow rotational movement of the actuator; a brake to prevent rotational movement of the rotatable actuator; and a control circuitry configured to: control the actuator to perform a material testing process; monitor a plurality of inputs associated with operation of the material testing system ; identify an operational state of the material testing system from a plurality of predetermined operational states based on the plurality of inputs and the material testing process, the plurality of predetermined operational states comprising one or more of a disabled state, a setup state, a caution state, or a testing state; and control the virtual interlock based on the identified state wherein the control circuitry is further configured to identify activation of a non-rotational testing process and engage the brake to lock the actuator from rotational movement in response. a rotatable actuator configured to control an operator-accessible torsional testing component of the material testing system ; a virtual interlock configured to engage or disengage with the actuator to prevent or allow rotational movement of the actuator; a brake to prevent rotational movement of the rotatable actuator; and a control circuitry configured to: control the actuator to perform a material testing process; monitor a plurality of inputs associated with operation of the material testing system ; identify an operational state of the material testing system from a plurality of predetermined operational states based on the plurality of inputs and the material testing process, the plurality of predetermined operational states comprising one or more of a disabled state, a setup state, a caution state, or a testing state; and control the virtual interlock based on the identified state wherein the control circuitry is further configured to identify activation of a non-rotational testing process and engage the brake to lock the actuator from rotational movement in response. control the actuator to perform a material testing process; monitor a plurality of inputs associated with operation of the material testing system ; identify an operational state of the material testing system from a plurality of predetermined operational states based on the plurality of inputs and the material testing process, the plurality of predetermined operational states comprising one or more of a disabled state, a setup state, a caution state, or a testing state; and control the virtual interlock based on the identified state wherein the control circuitry is further configured to identify activation of a non-rotational testing process and engage the brake to lock the actuator from rotational movement in response.
A drill bit , comprising: a surface that includes a pad configured to extend and retract from the surface ; a motor ; and a hydraulic unit configured to apply force on the pad ; characterised by comprising: a linearly movable member coupled to the motor , wherein rotation of the motor in a first rotational direction causes the linearly movable member to move in a first direction; and a piston coupled to the linearly movable member , wherein the movement of the linearly movable member moves the piston in the first direction; wherein the hydraulic unit includes a fluid chamber , a moveable chamber and a fluid cavity , the moveable chamber being coupled to the pad; wherein the movement of the piston in the first direction causes a fluid in the fluid chamber to move in the first direction and into the fluid cavity ; wherein movement of fluid into the fluid cavity exerts pressure that causes the fluid cavity to expand by causing the moveable chamber to move in the first direction; wherein movement of the moveable chamber in the first direction exerts a force on the pad to extend the pad . a motor ; and a hydraulic unit configured to apply force on the pad ; a linearly movable member coupled to the motor , wherein rotation of the motor in a first rotational direction causes the linearly movable member to move in a first direction; and a piston coupled to the linearly movable member , wherein the movement of the linearly movable member moves the piston in the first direction; wherein the hydraulic unit includes a fluid chamber , a moveable chamber and a fluid cavity , the moveable chamber being coupled to the pad; wherein the movement of the piston in the first direction causes a fluid in the fluid chamber to move in the first direction and into the fluid cavity ; wherein movement of fluid into the fluid cavity exerts pressure that causes the fluid cavity to expand by causing the moveable chamber to move in the first direction; wherein movement of the moveable chamber in the first direction exerts a force on the pad to extend the pad .
A shielding filler, wherein, the shielding filler adopts melamine sponge as a carrier and surfaces thereof are covered with FeO x /graphene; wherein, the FeO x exists in the following forms: one or more of Fe, FeO, Fe 2 O 3 or Fe 3 O 4 ; the FeO x accounts for 5% to 99% of the total mass of the shielding filler, and the graphene accounts for 1% to 95% of the total mass of the shielding filler; wherein, the shielding filler has a porosity of 65% to 85%, a saturation magnetization of 86 to 95 emu/g, a coercive force of 158 to 210 Oe, and a response frequency band of 100 kHz to 18 GHz; wherein the shielding filler is prepared by the following step: preparing an aqueous dispersion solution of Fe 3+ - graphene oxide; impregnating the melamine sponge with the Fe 3+ - graphene oxide solution to adsorb the Fe 3+ -graphene oxide solution, oven drying; and subjecting the melamine sponge to high temperature treatment. wherein, the FeO x exists in the following forms: one or more of Fe, FeO, Fe 2 O 3 or Fe 3 O 4 ; the FeO x accounts for 5% to 99% of the total mass of the shielding filler, and the graphene accounts for 1% to 95% of the total mass of the shielding filler; wherein, the shielding filler has a porosity of 65% to 85%, a saturation magnetization of 86 to 95 emu/g, a coercive force of 158 to 210 Oe, and a response frequency band of 100 kHz to 18 GHz; wherein the shielding filler is prepared by the following step: preparing an aqueous dispersion solution of Fe 3+ - graphene oxide; impregnating the melamine sponge with the Fe 3+ - graphene oxide solution to adsorb the Fe 3+ -graphene oxide solution, oven drying; and subjecting the melamine sponge to high temperature treatment. preparing an aqueous dispersion solution of Fe 3+ - graphene oxide; impregnating the melamine sponge with the Fe 3+ - graphene oxide solution to adsorb the Fe 3+ -graphene oxide solution, oven drying; and subjecting the melamine sponge to high temperature treatment.
An electrosurgical apparatus comprising: a microwave feed line for carrying microwave electromagnetic (EM) energy having a frequency from an electrosurgical generator; an instrument cable for insertion into a patient's body to a treatment site, the instrument cable comprising: a coaxial transmission line for conveying the microwave EM energy, and an internal passageway for providing access to the treatment site; and a junction arranged to transfer the microwave EM energy between a distal end of the microwave feed line and a proximal end of the instrument cable, wherein the microwave feed line has a first impedance at the frequency of the microwave EM energy, wherein the instrument cable has a second impedance at the frequency of the microwave EM energy, the second impedance being lower than the first impedance, and wherein the junction comprises: a microstrip impedance transformer arranged to match the first impedance and the second impedance, and a hollow conduit in fluid communication with the internal passageway. a microwave feed line for carrying microwave electromagnetic (EM) energy having a frequency from an electrosurgical generator; an instrument cable for insertion into a patient's body to a treatment site, the instrument cable comprising: a coaxial transmission line for conveying the microwave EM energy, and an internal passageway for providing access to the treatment site; and a coaxial transmission line for conveying the microwave EM energy, and an internal passageway for providing access to the treatment site; and a junction arranged to transfer the microwave EM energy between a distal end of the microwave feed line and a proximal end of the instrument cable, wherein the microwave feed line has a first impedance at the frequency of the microwave EM energy, wherein the instrument cable has a second impedance at the frequency of the microwave EM energy, the second impedance being lower than the first impedance, and wherein the junction comprises: a microstrip impedance transformer arranged to match the first impedance and the second impedance, and a hollow conduit in fluid communication with the internal passageway. a microstrip impedance transformer arranged to match the first impedance and the second impedance, and a hollow conduit in fluid communication with the internal passageway.
Place divider of a milking parlor arrangement (1, 1', 1", 1′′′) for at least one milking parlor for milking milking animals (T), wherein the place divider is arranged at a longitudinal side of the milking parlor , comprising an arm device (6, 6', 6", 6′′′) with a milking cluster , which arm device is adjustable from a parking position into a working position and back, wherein the arm device (6, 6', 6", 6′′′) with the milking cluster is arranged in the parking position in the place divider and is displaceable into the working position in such a way that the displacement of the milking cluster from the parking position in the place divider into the working position takes place from the side of the animal to be milked between its front legs and rear legs under the udder of the animal to be milked, characterized in that the place divider has a casing with two self-supporting half-shells, one section of the half-shells forming a rear section of the place divider, and in that the place divider has at least one service unit which can be inserted into a receiving space ) in the rear section and removed again, which has all service-relevant functional groups and components, including measuring devices and sensors, and which can be locked within the receiving space and connected to an installation via at least one connecting device .
A disc brake for railway vehicles comprising a pad and a disk (D) on which the pad acts; said pad comprising a base plate and a plurality of friction elements fixed to the base plate ; characterised in that said friction elements comprise first friction elements made of a first material and second friction elements made of a second material; wherein said second material has a compressibility modulus (pressure needed to compress the material by 1 mm) smaller than the one of said first material by a value equal or greater to 5 MPa; said first friction elements being in a higher number than said second friction elements . elements comprise first friction elements made of a first material and second friction elements made of a second material; wherein said second material has a compressibility modulus (pressure needed to compress the material by 1 mm) smaller than the one of said first material by a value equal or greater to 5 MPa; said first friction elements being in a higher number than said second friction elements .
A method, performed by a gateway node , for managing packets on a transport connection between a first end-point and a second end-point , wherein the gateway node is located on the transport connection , and wherein the method comprises: forwarding (A020), on the transport connection , a first packet from the first end-point to the second end-point ; finding (A040), by inspection of the first packet, that the first packet indicates closing of the transport connection at the first end-point ; after finding (A040) that the first packet indicates closing of the transport connection at the first end-point , generating (A050), in response to the received first packet, an acknowledgement packet to cause the first end-point to close down the transport connection ; sending (A060), on the transport connection , the acknowledgement packet towards the first end-point ; receiving (A120), on the transport connection , a second packet from the second end-point , wherein the second packet is destined to the first end-point ; and discarding (A130) the second packet, thereby refraining from forwarding, on the transport connection , the second packet from the second end-point to the first end-point , wherein a transport network comprises the gateway node , the first end-point , and the second end-point , and wherein the gateway node is a Packet Gateway of an Evolved Packet Core network comprising the transport network . forwarding (A020), on the transport connection , a first packet from the first end-point to the second end-point ; finding (A040), by inspection of the first packet, that the first packet indicates closing of the transport connection at the first end-point ; after finding (A040) that the first packet indicates closing of the transport connection at the first end-point , generating (A050), in response to the received first packet, an acknowledgement packet to cause the first end-point to close down the transport connection ; sending (A060), on the transport connection , the acknowledgement packet towards the first end-point ; receiving (A120), on the transport connection , a second packet from the second end-point , wherein the second packet is destined to the first end-point ; and discarding (A130) the second packet, thereby refraining from forwarding, on the transport connection , the second packet from the second end-point to the first end-point , wherein a transport network comprises the gateway node , the first end-point , and the second end-point , and wherein the gateway node is a Packet Gateway of an Evolved Packet Core network comprising the transport network .
A container for performing amplification reactions in a closed system comprising a flexible portion having a plurality of blisters fluidly connected via a plurality of channels, and a plurality of reservoirs, each reservoir containing a reaction component, and each reservoir fluidly connected to at least one of the plurality of blisters, and a sealable port configured for receiving a sample, the sealable port fluidly connected to one of the plurality of blisters, wherein the container comprises: a high density reaction zone comprising: a channel , a high density array , comprising at least 50 high density reaction wells fluidly connected to the channel , wherein each high density reaction well comprises one or more reagents, a layer sealed to one side of the high density array and, a barrier layer sealed to the opposite side of the array, that minimizes cross-contamination between high density reaction wells upon introduction of the sample to the high density reaction zone , wherein the barrier layer is a pierced layer with a plurality of piercings (586,) wherein the piercings align with the high density reaction wells , minimizing flow through the piercings absent a force of vacuum to force a fluid into or out of the high density reaction wells . a channel , a high density array , comprising at least 50 high density reaction wells fluidly connected to the channel , wherein each high density reaction well comprises one or more reagents, a layer sealed to one side of the high density array and, a barrier layer sealed to the opposite side of the array, that minimizes cross-contamination between high density reaction wells upon introduction of the sample to the high density reaction zone , wherein the barrier layer is a pierced layer with a plurality of piercings (586,) wherein the piercings align with the high density reaction wells , minimizing flow through the piercings absent a force of vacuum to force a fluid into or out of the high density reaction wells . a layer sealed to one side of the high density array and, a barrier layer sealed to the opposite side of the array, that minimizes cross-contamination between high density reaction wells upon introduction of the sample to the high density reaction zone , wherein the barrier layer is a pierced layer with a plurality of piercings (586,) wherein the piercings align with the high density reaction wells , minimizing flow through the piercings absent a force of vacuum to force a fluid into or out of the high density reaction wells .
A method of manufacturing a collection of matter bound by a polymeric binder comprising the steps: (i) providing a collection of matter, (ii) providing a water soluble pre-reacted binder composition in a solvent to obtain a solution or dispersion, the water-soluble pre-reacted binder composition comprising the reaction product(s) of (a) at least one carbohydrate component, and (b) at least one polyamino acid component, and optionally (c) at least one polyamine and/or at least one polyol, wherein the pre-reacted binder composition comprises at least one pre-polymer having a molecular weight in the range of 1 to 100 kDa, (iii) applying the solution or dispersion obtained in step (ii) to the collection of matter, and (iv) applying energy to the collection of matter containing said solution or dispersion to cure the binder composition (i) providing a collection of matter, (ii) providing a water soluble pre-reacted binder composition in a solvent to obtain a solution or dispersion, the water-soluble pre-reacted binder composition comprising the reaction product(s) of (a) at least one carbohydrate component, and (b) at least one polyamino acid component, and optionally (c) at least one polyamine and/or at least one polyol, wherein the pre-reacted binder composition comprises at least one pre-polymer having a molecular weight in the range of 1 to 100 kDa, (a) at least one carbohydrate component, and (b) at least one polyamino acid component, and optionally (c) at least one polyamine and/or at least one polyol, (iii) applying the solution or dispersion obtained in step (ii) to the collection of matter, and (iv) applying energy to the collection of matter containing said solution or dispersion to cure the binder composition
A cell-holding container comprising: an elastic body which is able to hold cells including at least any one of adherent cells at least one selected from the group consisting of stem cells, progenitor cells, somatic cells and germ cells, and suspended cells at least one selected from the group consisting of blood cells, T cells and B cells; the elastic body is formed of a rubber material containing a rubber component including an additional crosslinking silicone rubber and is able to hold the cells; and the elastic body has a soft portion which is deformable and a hard portion, wherein the hard portion has a hardness of A50/S to A90/S according to Shore A hardness, and wherein the elastic body is reversibly deformable from a plain shape to a concave-convex shape having a dented concave part and/or a raised convex part by receiving external force. an elastic body which is able to hold cells including at least any one of adherent cells at least one selected from the group consisting of stem cells, progenitor cells, somatic cells and germ cells, and suspended cells at least one selected from the group consisting of blood cells, T cells and B cells; the elastic body is formed of a rubber material containing a rubber component including an additional crosslinking silicone rubber and is able to hold the cells; and the elastic body has a soft portion which is deformable and a hard portion, wherein the hard portion has a hardness of A50/S to A90/S according to Shore A hardness, and wherein the elastic body is reversibly deformable from a plain shape to a concave-convex shape having a dented concave part and/or a raised convex part by receiving external force.
Lockable modular connection device between two separate parts, said connection device including a first element intended to be connected to one (E1) of the parts (E1, E2) and a second element intended to be connected to the other (E2) of the parts (E1, E2). wherein the first element comprises a rod rigidly connected to a ball joint of overall spherical shape, the second element comprises a hollow housing wherein said ball joint is arranged, the housing overall conforming to the ball joint and being provided with an opening traversed by the rod , wherein said connection device also comprises a space referred to as inner space between an inner face of the housing and a peripheral face of the ball joint facing one another, and a locking element arranged between the housing and the ball joint , and wherein at least one of the ball joint and the housing is provided with patterns respectively on at least a portion of the peripheral face of the ball joint or on at least a portion of the inner face of the housing , characterised in that the locking element consists of a hardened material which fills the entirety of said inner space and with respect to which said patterns form stops, to hold said ball joint in a fixed position in said housing .
A method for managing group voice communication in a telecommunications system comprising a telecommunications network; a user terminal connected to the telecommunications network; and a communication server capable of providing the user terminal with access to group voice communication via the telecommunications network; the method comprising: maintaining, in the system, information of at least two communication groups available to the user terminal; receiving, in the communication server, a request message indicating a request from the user terminal to speak to a first communication group, which originally was a non-priority communication group; transmitting, from the communication server to the user terminal, a grant message indicating an acceptance of said request; and as a response to said transmitting, setting, in the communication server, the first communication group as a priority communication group of a highest priority for said user terminal and transmitting a voice stream from the first communication group to said user terminal, wherein said setting of the priority communication group expires after a predetermined time period after a floor release request is transmitted from the user terminal to the communication server, and wherein after the predetermined time period has expired a voice stream from a second communication group, which originally was a default priority communication group, is transmitted to said user terminal. maintaining, in the system, information of at least two communication groups available to the user terminal; receiving, in the communication server, a request message indicating a request from the user terminal to speak to a first communication group, which originally was a non-priority communication group; transmitting, from the communication server to the user terminal, a grant message indicating an acceptance of said request; and as a response to said transmitting, setting, in the communication server, the first communication group as a priority communication group of a highest priority for said user terminal and transmitting a voice stream from the first communication group to said user terminal, wherein said setting of the priority communication group expires after a predetermined time period after a floor release request is transmitted from the user terminal to the communication server, and wherein after the predetermined time period has expired a voice stream from a second communication group, which originally was a default priority communication group, is transmitted to said user terminal.