mhurhangee/patent-ind-claim-en huggingface dataset:
Refrigeration appliance with a cooling circuit with a high pressure region comprising a compressor for compressing a refrigerant with a refrigerant transfer point, a condenser for condensing the refrigerant and a refrigerant line between the refrigerant transfer point and the condenser for transporting the refrigerant, wherein the refrigerant line comprises a compressor connection nozzle and a refrigerant pipe , wherein the refrigerant line comprises a line region (111, 113, 115; 125; 136, 138, 142, 144) with a first flow cross-section and a constriction region (112, 114, 116; 126; 137, 139, 143, 145) with a second flow cross-section which is smaller than the first flow cross-section, wherein the constriction region (112, 114, 116; 126; 137, 139, 143, 145) is formed by at least one concave curve of a pipe wall of the refrigerant pipe , characterised in that the constriction region (112, 114, 116; 126; 137, 139, 143, 145) is arranged near the compressor at a distance of less than 250 mm downstream of the compressor .
A controller for being used as a portion of a transdermal drug delivery apparatus including a receptacle and a reservoir , the controller comprising: a housing configured for moving relative to the receptacle ; a pushing mechanism mounted for moving relative to the housing and configured for pushing against the reservoir ; a force provider positioned between the housing and the pushing mechanism for moving the pushing mechanism relative to the housing ; and a latching mechanism for selectively restricting and allowing relative movement between the housing and the pushing mechanism , the latching mechanism being configured for allowing relative movement between the housing and the pushing mechanism in response to relative movement between the housing and the receptacle ; characterised in that the latching mechanism comprises flexible arms extending between opposite ends of the latching mechanism ; and the latching mechanism is configured so that the arms release the pushing mechanism in response to the opposite ends being forced toward one another by the receptacle . a housing configured for moving relative to the receptacle ; a pushing mechanism mounted for moving relative to the housing and configured for pushing against the reservoir ; a force provider positioned between the housing and the pushing mechanism for moving the pushing mechanism relative to the housing ; and a latching mechanism for selectively restricting and allowing relative movement between the housing and the pushing mechanism , the latching mechanism being configured for allowing relative movement between the housing and the pushing mechanism in response to relative movement between the housing and the receptacle ; characterised in that the latching mechanism comprises flexible arms extending between opposite ends of the latching mechanism ; and the latching mechanism is configured so that the arms release the pushing mechanism in response to the opposite ends being forced toward one another by the receptacle .
A reaction solution comprising water, sucrose and a glucosyltransferase enzyme that synthesizes poly alpha-1,3-1,6-glucan, wherein said glucosyltransferase enzyme comprises an amino acid sequence that is at least 90% identical to SEQ ID NO:2, SEQ ID NO:8, or SEQ ID NO:10.
A mobile terminal comprising: a case for receiving an electronic component therein; a middle frame mounted on the case ; a main board mounted on the case ; a first antenna forming a slot between the middle frame , wherein the first antenna has a first end spaced apart from the middle frame , and a second end connected to the middle frame ; a second antenna including a first pattern and a second pattern , wherein a gap is formed between the first pattern and the second pattern ; a first feeding line connected between the first antenna and the main board to transmit a signal thereto; a ground line connected between the first antenna , the first pattern of the second pattern and the middle frame to ground the first antenna and the second antenna ; and a second feeding line connected to the second pattern of the second antenna , wherein at least a portion of the second antenna is overlapped with the slot. a case for receiving an electronic component therein; a middle frame mounted on the case ; a main board mounted on the case ; a first antenna forming a slot between the middle frame , wherein the first antenna has a first end spaced apart from the middle frame , and a second end connected to the middle frame ; a second antenna including a first pattern and a second pattern , wherein a gap is formed between the first pattern and the second pattern ; a first feeding line connected between the first antenna and the main board to transmit a signal thereto; a ground line connected between the first antenna , the first pattern of the second pattern and the middle frame to ground the first antenna and the second antenna ; and a second feeding line connected to the second pattern of the second antenna , wherein at least a portion of the second antenna is overlapped with the slot.
A well tool in a well operation in a borehole, comprising: a first component having a first device; a second component having a second device and a passage for receiving the first component; an orientation assembly configured to cause a predetermined relative orientation between the first and the second component; and a coupling device operatively coupling the first device with the second device upon the orientation assembly orienting the first component with the second component in the predetermined relative orientation, the coupling device communicating at least one of power and information between the first and the second device; characterised in that : the first component is a drill string and the second component is a liner assembly . a first component having a first device; a second component having a second device and a passage for receiving the first component; an orientation assembly configured to cause a predetermined relative orientation between the first and the second component; and a coupling device operatively coupling the first device with the second device upon the orientation assembly orienting the first component with the second component in the predetermined relative orientation, the coupling device communicating at least one of power and information between the first and the second device; characterised in that : the first component is a drill string and the second component is a liner assembly .
Use of a clutch and brake device for a processing machine, wherein the clutch and brake device comprises - a first brake , a second brake and a clutch , wherein - the first brake with a first actuator system (I) for controlling the first brake , - the second brake with a second actuating system (II) for controlling the second brake and - the clutch is equipped with a third actuating system (III) for controlling the clutch , wherein - the actuating systems (I, II, III) consist of separate actuating systems, wherein - the first brake and the clutch are used as a clutch-brake combination, wherein - the first actuating system (I) for the first brake and the third actuating system (III) for the clutch are controlled in a time-staggered, but overlapping manner, or - the first actuating system (I) for the first brake and the third actuating system (III) for the clutch are not controlled simultaneously, - a first brake , a second brake and a clutch , wherein - the first brake with a first actuator system (I) for controlling the first brake , - the second brake with a second actuating system (II) for controlling the second brake and - the clutch is equipped with a third actuating system (III) for controlling the clutch , wherein - the actuating systems (I, II, III) consist of separate actuating systems, wherein - the first brake and the clutch are used as a clutch-brake combination, wherein - the first actuating system (I) for the first brake and the third actuating system (III) for the clutch are controlled in a time-staggered, but overlapping manner, or - the first actuating system (I) for the first brake and the third actuating system (III) for the clutch are not controlled simultaneously,
A method for selecting a B-cell comprising the following steps: a) labeling B-cells of a population of B-cells, b) depositing single labeled B-cells of a population of B-cells in an individual container comprising feeder cells, c) centrifuging each of the B-cells of a population of B-cells, which has been deposited as single cell in an individual container comprising feeder cells, d) co-cultivating each of the B-cells of a population of B-cells, which has been deposited as single cell in an individual container, with the feeder cells, e) selecting a B-cell clone proliferating and secreting antibody in step d). a) labeling B-cells of a population of B-cells, b) depositing single labeled B-cells of a population of B-cells in an individual container comprising feeder cells, c) centrifuging each of the B-cells of a population of B-cells, which has been deposited as single cell in an individual container comprising feeder cells, d) co-cultivating each of the B-cells of a population of B-cells, which has been deposited as single cell in an individual container, with the feeder cells, e) selecting a B-cell clone proliferating and secreting antibody in step d).
Use of a synthetic feeder mix for the co-cultivation of B-cells and feeder cells, wherein the synthetic feeder mix is consisting of synthetic components comprising IL-1β, TNFα, IL-10, and - IL-2 and SAC, or - IL-6, wherein the feeder mix is for the co-cultivation of rabbit B-cells and feeder cells, or - IL-6 or IL-2, and SAC, wherein the feeder mix is for the co-cultivation of rabbit B-cells and feeder cells, or - IL-2 and IL-6, wherein the feeder mix is for the co-cultivation of murine or hamster B-cells and feeder cells, or - IL-2, IL-6 and SAC, wherein the feeder mix is for the co-cultivation of hamster B-cells and feeder cells. - IL-2 and SAC, or - IL-6, wherein the feeder mix is for the co-cultivation of rabbit B-cells and feeder cells, or - IL-6 or IL-2, and SAC, wherein the feeder mix is for the co-cultivation of rabbit B-cells and feeder cells, or - IL-2 and IL-6, wherein the feeder mix is for the co-cultivation of murine or hamster B-cells and feeder cells, or - IL-2, IL-6 and SAC, wherein the feeder mix is for the co-cultivation of hamster B-cells and feeder cells.
A heat transfer layer of a heat exchanger, having an inlet side, IN, where a medium enters the layer and an outlet side, OUT, where the medium exits the layer, and a plurality of additively manufactured fins defining a plurality of flow channels for the medium from the inlet side to the outlet side, each fin having a leading edge adjacent the inlet side and a trailing edge adjacent the outlet side, and characterized in that the leading edge of a subset of the fins is thicker than the rest of the fin, and wherein the leading edge of the fins intermediate the fins of the subset of fins is recessed with respect to the inlet side compared to the leading edge of the fins of the subset of fins, wherein the subset of fins comprises every second fin
An adjustable seat tube structure which is for adjusting a height of a saddle for a bicycle, comprising a lower tube , an upper tube and a piston set , wherein the lower tube comprises a top end, the upper tube is disposed at the lower tube and is limitedly moved relative to the lower tube , the upper tube is linked up with the saddle , the upper tube comprises an upper end protruded out of the top end, an inner space for receiving a gas (A1) and an oil (O1), and a lower end corresponded to the upper end , the piston set comprising a piston disposed inside the inner space, a valve disposed inside the piston , and a rod connected to the piston , and the lower end moves relative to the piston , characterized in that : the valve further comprises a channel and a valve opening , the channel passing through the piston , the valve opening being a hole disposed at the piston and communicating with the channel , wherein the valve is opened to allow the gas (A1) or the oil (O1) to pass through the piston , such that the upper tube is moved relative to the piston set so as to adjust a relative distance between the top end and the upper end , and the relative distance is fixed when the piston is fixed by closing the valve .
An exposure apparatus for exposing an object (W) with an energy beam (IL) via an optical system (PL) supported by a first support member (BD), the apparatus comprising: a movable body (WST1, WST2) for holding the object and which is movable along a predetermined two-dimensional plane; a guide surface forming member that forms a guide surface used when the movable body moves along the two-dimensional plane; a first drive system for driving the movable body; a second support member that is placed apart from the guide surface forming member on a side of the guide surface forming member which is opposite to that side of the guide surface forming member which opposes the optical system and is fixed to the first support member; and a measurement system which includes a first measurement member arranged to irradiate a measurement surface (RG) parallel to the two-dimensional plane with a measurement beam and to receive light from the measurement surface, and configured to obtain positional information of the movable body at least within the two-dimensional plane based on an output of the first measurement member, the measurement surface being arranged at one of the movable body and the second support member and at least a part of the first measurement member being arranged at the other of the movable body and the second support member. a movable body (WST1, WST2) for holding the object and which is movable along a predetermined two-dimensional plane; a guide surface forming member that forms a guide surface used when the movable body moves along the two-dimensional plane; a first drive system for driving the movable body; a second support member that is placed apart from the guide surface forming member on a side of the guide surface forming member which is opposite to that side of the guide surface forming member which opposes the optical system and is fixed to the first support member; and a measurement system which includes a first measurement member arranged to irradiate a measurement surface (RG) parallel to the two-dimensional plane with a measurement beam and to receive light from the measurement surface, and configured to obtain positional information of the movable body at least within the two-dimensional plane based on an output of the first measurement member, the measurement surface being arranged at one of the movable body and the second support member and at least a part of the first measurement member being arranged at the other of the movable body and the second support member.
A waveguide section comprising at least one air-filled waveguide conducting tube (2; 2a, 2b, 2c, 2d, 2e, 2f, 2g, 2h) having an electrically conducting inner wall , where, for each waveguide conducting tube (2; 2a, 2b, 2c, 2d, 2e, 2f, 2g, 2h), the waveguide section comprises a plug-in filter device that comprises two or more electrically conducting elements (5, 6, 7, 8; 5a, 6a, 7a, 8a) arranged in series and spaced apart by a connecting arrangement , wherein each plug-in filter device is adapted to be retained in the corresponding waveguide conducting tube (2; 2a, 2b, 2c, 2d, 2e, 2f, 2g, 2h) by means of a dielectric holding arrangement (9, 10; 9a, 10a; 79) such that the electrically conducting elements (5, 6, 7, 8; 5a, 6a, 7a, 8a) are spaced apart from the waveguide conducting tube (2; 2a, 2b, 2c, 2d, 2e, 2f, 2g, 2h), where the electrically conducting elements (5, 6, 7, 8; 5a, 6a, 7a, 8a) are arranged to be electromagnetically coupled such that a radio frequency signal passing via a corresponding waveguide conducting tube (2; 2a, 2b, 2c, 2d, 2e, 2f, 2g, 2h) is arranged to be electromagnetically filtered, and wherein the dielectric holding arrangement comprises a dielectric layer placed on top of a second end of the waveguide section, which dielectric layer in turn comprises an aperture for each plug-in filter device, where each aperture is adapted to engage a corresponding plug-in filter device.
Method for smoothing a surface region of a component (11; 21) consisting of an electrically conductive material at least within the surface region, wherein within a vacuum chamber the surface region of the component (11; 21) is swept over by means of at least one focused electron beam (13; 23) with a first surface energy, which causes melting of the component material within the surface region, wherein a) before melting the surface region is swept over at least twice by the electron beam (13; 23), in each case with a different focal length (27a; 27b; 27c) of the electron beam (13; 23), wherein b) a second surface energy is set for the electron beam (13; 23), which second surface energy does not cause melting of the component material in the surface region, wherein c) data are acquired by means of a number of sensors (14; 24) arranged within the vacuum chamber, said data characterizing the electric current caused by the backscattered electrons impinging on the sensors (14; 24), wherein d) within an evaluation device (15; 25), an actual value for the roughness in the surface region is derived from the data acquired by the sensors (14; 24), the actual value of the roughness is compared with a target value of the roughness and, if the actual value of the roughness has not reached the target value of the roughness, a value for the first surface energy is determined depending on the result of the comparison, and thereafter e) the surface region is swept over by the electron beam (13; 23) with the first surface energy, after which the method continues with method step a) . a) before melting the surface region is swept over at least twice by the electron beam (13; 23), in each case with a different focal length (27a; 27b; 27c) of the electron beam (13; 23), wherein b) a second surface energy is set for the electron beam (13; 23), which second surface energy does not cause melting of the component material in the surface region, wherein c) data are acquired by means of a number of sensors (14; 24) arranged within the vacuum chamber, said data characterizing the electric current caused by the backscattered electrons impinging on the sensors (14; 24), wherein d) within an evaluation device (15; 25), an actual value for the roughness in the surface region is derived from the data acquired by the sensors (14; 24), the actual value of the roughness is compared with a target value of the roughness and, if the actual value of the roughness has not reached the target value of the roughness, a value for the first surface energy is determined depending on the result of the comparison, and thereafter e) the surface region is swept over by the electron beam (13; 23) with the first surface energy, after which the method continues with method step a) .
A bearing preload force gauge for a turbomolecular pump comprising an outlet side rotor roller bearing under an adjustable preload force, an inlet-side, passive magnetic bearing having an inner race and an outer race , the inner race is configured to be positioned within the turbomolecular pump, and an impeller configured for engagement with the gauge and the impeller comprising the outer race , said gauge is configured to adjust and indicate the bearing preload force, the gauge comprising: a housing , said housing comprising preload force adjustor drive legs , configured, in use, by rotating the gauge about its longitudinal axis , to axially move the inner race relative to the outer race to adjust the bearing preload force; and an indicator for indicating the bearing preload force and an actuator coupled to an impeller engagement surface configured to engage with the impeller with a member configured to provide a resilient bias between the actuator and the impeller engagement surface. a housing , said housing comprising preload force adjustor drive legs , configured, in use, by rotating the gauge about its longitudinal axis , to axially move the inner race relative to the outer race to adjust the bearing preload force; and an indicator for indicating the bearing preload force and an actuator coupled to an impeller engagement surface configured to engage with the impeller with a member configured to provide a resilient bias between the actuator and the impeller engagement surface.
A refrigerant introducer for cooling a cooling target provided for a gas chromatograph, the refrigerant introducer comprising: a refrigerant feeder configured to intermittently feed a refrigerant to the cooling target at predetermined time intervals, wherein the refrigerant feeder comprises a valve for controlling a flow rate of the refrigerant; a memory storage configured to store in association with each other time intervals between intermittent feedings of the refrigerant to the cooling target and a decrement of a temperature of the cooling target when the refrigerant has been fed to the cooling target at the respective time interval; a temperature prediction unit configured to predict the temperature of the cooling target on the assumption that the refrigerant is fed from the refrigerant feeder , based on a temperature of the cooling target detected by a temperature detector , a time interval that has passed since the last feeding of the refrigerant from the refrigerant feeder , and the time intervals and the respective decrements of the temperature stored in the memory storage ; and a cooling controller configured to control the valve to control the feeding of the refrigerant from the refrigerant feeder to the cooling target based on the temperature of the cooling target predicted by the temperature prediction unit . a refrigerant feeder configured to intermittently feed a refrigerant to the cooling target at predetermined time intervals, wherein the refrigerant feeder comprises a valve for controlling a flow rate of the refrigerant; a memory storage configured to store in association with each other time intervals between intermittent feedings of the refrigerant to the cooling target and a decrement of a temperature of the cooling target when the refrigerant has been fed to the cooling target at the respective time interval; a temperature prediction unit configured to predict the temperature of the cooling target on the assumption that the refrigerant is fed from the refrigerant feeder , based on a temperature of the cooling target detected by a temperature detector , a time interval that has passed since the last feeding of the refrigerant from the refrigerant feeder , and the time intervals and the respective decrements of the temperature stored in the memory storage ; and a cooling controller configured to control the valve to control the feeding of the refrigerant from the refrigerant feeder to the cooling target based on the temperature of the cooling target predicted by the temperature prediction unit .