mhurhangee/patent-ind-claim-en huggingface dataset:
An endoscope comprising: a distal end optical system that is movable forward and backward in an optical axis direction; a shaft that has a shaft axis (B), is configured to rotate in a rotation direction about the shaft axis (B), and moves the distal end optical system in the optical axis direction in a case in which the shaft rotates in the rotation direction; an operation member; a slider that moves forward and backward in a direction of the shaft axis (B) according to an operation of the operation member; a power conversion transmission mechanism that rotates the shaft by the forward and backward movement of the slider ; an insertion part ; and a hand operating part that is connected to a base end side of the insertion part , wherein the distal end optical system is provided on a distal end side of the insertion part ; and the operation member is provided on the hand operating part , characterized in that the slider and the power conversion transmission mechanism are provided on the hand operating part ; and the shaft is provided from the hand operating part to the insertion part . a distal end optical system that is movable forward and backward in an optical axis direction; a shaft that has a shaft axis (B), is configured to rotate in a rotation direction about the shaft axis (B), and moves the distal end optical system in the optical axis direction in a case in which the shaft rotates in the rotation direction; an operation member; a slider that moves forward and backward in a direction of the shaft axis (B) according to an operation of the operation member; a power conversion transmission mechanism that rotates the shaft by the forward and backward movement of the slider ; an insertion part ; and a hand operating part that is connected to a base end side of the insertion part , wherein the distal end optical system is provided on a distal end side of the insertion part ; and the operation member is provided on the hand operating part , characterized in that the slider and the power conversion transmission mechanism are provided on the hand operating part ; and the shaft is provided from the hand operating part to the insertion part .
A semiconductor device for enabling voltage islands operating within different voltage ranges to communicate with one another, comprising: a first voltage island configured to operate within a first voltage range , wherein the first voltage range has a first midpoint ; a second voltage island configured to operate within a second voltage range , wherein the second voltage range has a second midpoint , wherein: the first voltage range is different than the second voltage range; and the first midpoint is substantially equal to the second midpoint; the semiconductor device further comprising: a register subsystem configured to store an output signal of the first voltage island ; and voltage switching logic , wherein once the output signal is stored, the register is switched from operating at the first voltage range to operating at the second voltage range. a first voltage island configured to operate within a first voltage range , wherein the first voltage range has a first midpoint ; a second voltage island configured to operate within a second voltage range , wherein the second voltage range has a second midpoint , wherein: the first voltage range is different than the second voltage range; and the first midpoint is substantially equal to the second midpoint; the semiconductor device further comprising: a register subsystem configured to store an output signal of the first voltage island ; and voltage switching logic , wherein once the output signal is stored, the register is switched from operating at the first voltage range to operating at the second voltage range. a register subsystem configured to store an output signal of the first voltage island ; and voltage switching logic , wherein once the output signal is stored, the register is switched from operating at the first voltage range to operating at the second voltage range.
An immuno-responsive T-cell or Natural Killer (NK)-cell expressing (i) a second generation chimeric antigen receptor (CAR) comprising: (a) a signalling region; (b) a co-stimulatory signalling region; (c) a transmembrane domain; and (d) a binding element that specifically interacts with a first epitope on a target antigen; and (ii) a chimeric costimulatory receptor (CCR) comprising: (e) a co-stimulatory signalling region which is different to that of (b); (f) a transmembrane domain; and (g) a binding element that specifically interacts with a second epitope on a target antigen. (i) a second generation chimeric antigen receptor (CAR) comprising: (a) a signalling region; (b) a co-stimulatory signalling region; (c) a transmembrane domain; and (d) a binding element that specifically interacts with a first epitope on a target antigen; and (a) a signalling region; (b) a co-stimulatory signalling region; (c) a transmembrane domain; and (d) a binding element that specifically interacts with a first epitope on a target antigen; and (ii) a chimeric costimulatory receptor (CCR) comprising: (e) a co-stimulatory signalling region which is different to that of (b); (f) a transmembrane domain; and (g) a binding element that specifically interacts with a second epitope on a target antigen. (e) a co-stimulatory signalling region which is different to that of (b); (f) a transmembrane domain; and (g) a binding element that specifically interacts with a second epitope on a target antigen.
A method performed by a first node for determining a distance between the first node and a second node wherein said method comprises: - time stamping (S100) a data packet to be transmitted from the first node to the second node with a first time stamp, - transmitting (S110) said data packet to the second node , - receiving (S120) the transmitted data packet back from the second node , - estimating (S130) the distance between the first node and second node based on a round trip time between the first node and second node for the data packet, - determining (S140) a number of repetitions for the repeating (S150) step based on the estimated distance, - repeating (S150) the transmitting (S110) and receiving (S120) step according to the number of repetitions determined in the determining step (S140), - time stamping (S160) the last received data packet from the second node with a second time stamp, and - calculating (S170) the distance between the first node and second node based on the first and second time stamp, the number of repetitions of the repeating (S150) step and internal delays in the first node and second node , characterized in that the number of repetitions of the repeating (S150) step decreases when the estimated distance increases, i.e. the shorter the estimated distance is the more repetitions are performed. - time stamping (S100) a data packet to be transmitted from the first node to the second node with a first time stamp, - transmitting (S110) said data packet to the second node , - receiving (S120) the transmitted data packet back from the second node , - estimating (S130) the distance between the first node and second node based on a round trip time between the first node and second node for the data packet, - determining (S140) a number of repetitions for the repeating (S150) step based on the estimated distance, - repeating (S150) the transmitting (S110) and receiving (S120) step according to the number of repetitions determined in the determining step (S140), - time stamping (S160) the last received data packet from the second node with a second time stamp, and - calculating (S170) the distance between the first node and second node based on the first and second time stamp, the number of repetitions of the repeating (S150) step and internal delays in the first node and second node ,
A portable table top welder for welding plastic material webs , the portable table top welder, comprising a frame including a carrier housing and a support arm at which a welding device is arranged, at least one transport roller including a rotatable transport roller axle and at least one contact pressure roller that is rotatably supported at the carrier housing , wherein a weight is arranged at an eccentrical element which is rotatably connected at one side by a concentrically supported eccentrical element axle at the carrier housing and rotatably connected at another side by an eccentrically supported contact pressure roller axle at the contact pressure roller .
A printing press (100***; 100****) adapted to carry out printing on a sheet-like substrate (S), in particular for the production of security documents such as banknotes, comprising a printing unit (2***; 2****) designed to print a first side (I) and/or a second side (II) of the substrate (S), wherein the printing press (100***; 100****) further comprises an in-line casting device (80*; 80**; 80***) adapted to apply a layer of material acting as an optical medium on a portion of the first side (I) of the substrate (S) and to replicate and form a micro-optical structure (L) in the layer of material acting as optical medium, which in-line casting device (80*; 80**; 80***) comprises at least an embossing tool , wherein the printing unit (2***; 2****) comprises at least a first printing group being adapted to print at least one printed pattern on the second side (II) of the substrate (S) in register with the micro-optical structure (L), and wherein the at least one embossing tool is designed as an embossing cylinder , which embossing cylinder is acting as counter-pressure cylinder and cooperates with a printing cylinder of the at least first printing group .
A bent edge of a metal sheet, wherein the bent edge is embodied in the form of a smooth, harmonic, assembled mathematical cubic curve (spline or polynomial line), characterised in that the bending of the edge of the metal sheet takes place in the visually relevant outer region of a vehicle in the movable region of doors or gates, in order to make the point of separation between moving and fixed parts appear visually narrower.
A manufacturing assistance apparatus comprising: - a learning unit configured to load a plurality of pieces of actual measurement data in each of which a gap (GAP) and a plurality of parameters are associated with each other, and construct an estimation model on a basis of machine learning in which the plurality of pieces of actual measurement data serve as teacher data, the gap (GAP) being provided between a first workpiece (Wa) and a second workpiece (Wb) that are configured to structure an airframe of an aircraft and that are configured to be fastened to each other, the estimation model estimating the gap (GAP) from the plurality of parameters, wherein the plurality of parameters are those that are configured to influence the gap and wherein the plurality of parameters are configured to be measured for or derived from a set of the first workpiece (Wa) and the second workpiece (Wb); - an estimator configured to derive an estimation value of a length of the gap (GAP) on which measurement has not yet been performed, on a basis of the estimation model constructed by the learning unit and the plurality of parameters; and - a correction selector configured to select a correction procedure that allows the gap (GAP) to be closer to an application range in which a previously-created standard shim is available, when the estimation value derived by the estimator falls outside the application range, wherein the manufacturing assistance apparatus is configured to select a shim (S) to be inserted into the gap (GAP) on the basis of the estimation value of the length of the gap (GAP). - a learning unit configured to load a plurality of pieces of actual measurement data in each of which a gap (GAP) and a plurality of parameters are associated with each other, and construct an estimation model on a basis of machine learning in which the plurality of pieces of actual measurement data serve as teacher data, the gap (GAP) being provided between a first workpiece (Wa) and a second workpiece (Wb) that are configured to structure an airframe of an aircraft and that are configured to be fastened to each other, the estimation model estimating the gap (GAP) from the plurality of parameters, wherein the plurality of parameters are those that are configured to influence the gap and wherein the plurality of parameters are configured to be measured for or derived from a set of the first workpiece (Wa) and the second workpiece (Wb); - an estimator configured to derive an estimation value of a length of the gap (GAP) on which measurement has not yet been performed, on a basis of the estimation model constructed by the learning unit and the plurality of parameters; and - a correction selector configured to select a correction procedure that allows the gap (GAP) to be closer to an application range in which a previously-created standard shim is available, when the estimation value derived by the estimator falls outside the application range,
A remote control for cameras, having a grab handle unit that may be received in a first hand by a user along a handle axis (GA) and a first operating element operable using a second hand of the user and rotatable about a first axis of rotation (DA1), wherein the first axis of rotation (DA1) is substantially perpendicular to a principal axis of the remote control and spans a principal plane (E) with the principal axis (HA), characterized in that the handle axis (GA) is rotated out of the principal axis (HA) within the principal plane (E), whereby an angle between handle axis (GA) and the first axis of rotation (DA1) is higher than 90 angular degrees, wherein the remote control has an operating body with additional display means and/or operational elements within the area that is present due to the rotation of the handle axis (GA) thereout, wherein the grab handle unit and the first operational element are arranged in relation to each other such that while the user holds and/or operates the remote control in the operational position intended therefore, the thumb of the first hand rests on a top surface of the grab handle unit .
A device comprising: a package substrate and a lid attached to the package substrate forming a package; a MEMS acoustic sensor disposed in the package; an application specific integrated circuit, ASIC, disposed in the package and comprising an ASIC substrate having an environmental sensing material of an environmental sensor disposed in the ASIC substrate , wherein the environmental sensor comprises the environmental sensing material in a configuration sensitive to a change in an environmental characteristic independent of pressure experienced by the environmental sensor , wherein the environmental sensor is comprised of a plurality of segments of the environmental sensing material interspersed between and in direct contact with a plurality of metal electrodes , wherein the plurality of metal electrodes are subjected to a variable electrical environment in response to the change in the environmental characteristic, wherein at least one of the plurality of metal electrodes comprises a heating element of the environmental sensor , and wherein the ASIC is configured to process data generated by the environmental sensor and data generated by the MEMS acoustic sensor ; and a port disposed in the package configured to receive acoustic waves for the MEMS acoustic sensor and air for the environmental sensor ; wherein, the package includes an acoustically sealed back cavity associated with the MEMS acoustic sensor . a package substrate and a lid attached to the package substrate forming a package; a MEMS acoustic sensor disposed in the package; an application specific integrated circuit, ASIC, disposed in the package and comprising an ASIC substrate having an environmental sensing material of an environmental sensor disposed in the ASIC substrate , wherein the environmental sensor comprises the environmental sensing material in a configuration sensitive to a change in an environmental characteristic independent of pressure experienced by the environmental sensor , wherein the environmental sensor is comprised of a plurality of segments of the environmental sensing material interspersed between and in direct contact with a plurality of metal electrodes , wherein the plurality of metal electrodes are subjected to a variable electrical environment in response to the change in the environmental characteristic, wherein at least one of the plurality of metal electrodes comprises a heating element of the environmental sensor , and wherein the ASIC is configured to process data generated by the environmental sensor and data generated by the MEMS acoustic sensor ; and a port disposed in the package configured to receive acoustic waves for the MEMS acoustic sensor and air for the environmental sensor ; wherein, the package includes an acoustically sealed back cavity associated with the MEMS acoustic sensor .
Device for transporting a stack of folding boxes, comprising a support for the stack of folding boxes and at least one slider , the at least one slider projecting beyond the support in the vertical direction during the transport movement, and at least part of a return movement taking place in such a way that the at least one slider does not project beyond the support , the at least one slider being mounted on a first carriage of a first linear guide, characterized in that a first guide rail of the first linear guide is fastened to a second carriage of a second linear guide.
Multi-glazed window formed by a frame produced from profiles supporting at least two glass panes (V1, V2) separated by an air layer (L), said window having a longitudinal median plane (P) and incorporating an active noise reduction device for a noise coming from a noise source (S), which device comprises: - at least one loudspeaker (HP) which is in the form of a hollow body in the form of an elongated rectangle parallelepiped and one face of which is constituted at least partially by a vibrating membrane arranged between the two adjacent glass panes (V1, V2) in such a way as to vibrate and generate a counter-noise in the air layer (L), the hollow body forming one of the profiles of the frame , and the membrane being arranged in the middle of the two glass panes (V1, V2), symmetrically with respect to the longitudinal median plane (P) of the window, - an actuator associated with the membrane , which actuator is capable of inducing a vibratory movement of said membrane, - at least one control microphone carried by the frame , said microphone being installed in the air layer (L) in order to sense the acoustic signals in said air layer (L), - a control electronics suitable for controlling the actuator according to the acoustic signals sensed by the control microphone , characterized by the fact that: - the control microphone is offset from the longitudinal median plane (P) of the window in such a way that it is closer to the glass pane (V2) which is the further from the noise source (S) than the other glass pane (V1). - at least one loudspeaker (HP) which is in the form of a hollow body in the form of an elongated rectangle parallelepiped and one face of which is constituted at least partially by a vibrating membrane arranged between the two adjacent glass panes (V1, V2) in such a way as to vibrate and generate a counter-noise in the air layer (L), the hollow body forming one of the profiles of the frame , and the membrane being arranged in the middle of the two glass panes (V1, V2), symmetrically with respect to the longitudinal median plane (P) of the window, - an actuator associated with the membrane , which actuator is capable of inducing a vibratory movement of said membrane, - at least one control microphone carried by the frame , said microphone being installed in the air layer (L) in order to sense the acoustic signals in said air layer (L), - a control electronics suitable for controlling the actuator according to the acoustic signals sensed by the control microphone , - the control microphone is offset from the longitudinal median plane (P) of the window in such a way that it is closer to the glass pane (V2) which is the further from the noise source (S) than the other glass pane (V1).
A method of media content preparation for 5G networks by a 5G media streaming system, 5GMS, the method to be performed when the media content is not available or missing, executable by a processor, and characterized by comprising: identifying a reverse address mapping process associated with a content preparation process for 5G media streaming, wherein the reverse address mapping process is defined in a same format as a format of an associated content preparation template, wherein the content preparation process is a cascade of content preparation processes, and wherein the reverse address mapping process includes one or more cascaded reverse address mapping processes used in the cascade of content preparation processes; calculating a media content address based on the identified reverse address mapping process; generating a workflow for the content preparation process based on the calculated media content address; and performing 5G media streaming content preparation according to the workflow for the content preparation process. identifying a reverse address mapping process associated with a content preparation process for 5G media streaming, wherein the reverse address mapping process is defined in a same format as a format of an associated content preparation template, wherein the content preparation process is a cascade of content preparation processes, and wherein the reverse address mapping process includes one or more cascaded reverse address mapping processes used in the cascade of content preparation processes; calculating a media content address based on the identified reverse address mapping process; generating a workflow for the content preparation process based on the calculated media content address; and performing 5G media streaming content preparation according to the workflow for the content preparation process.
A method for isolating a nucleic acid from a fluid comprising cells, the method comprising: a. applying the fluid to a device, the device comprising an array of electrodes capable of generating an AC electrokinetic field with an alternating current; b. controlling temperature of the device with a thermal element; c. concentrating a plurality of cells in a first AC electrokinetic field region, wherein the first AC electrokinetic region is a dielectrophoretic low field region; d. isolating the nucleic acid in a second AC electrokinetic field region, wherein the second AC electrokinetic field region is a dielectrophoretic high field region; and e. flushing the concentrated cells and/or other particulate material from the array; wherein the fluid is at a conductivity of at least 100 mS/m. a. applying the fluid to a device, the device comprising an array of electrodes capable of generating an AC electrokinetic field with an alternating current; b. controlling temperature of the device with a thermal element; c. concentrating a plurality of cells in a first AC electrokinetic field region, wherein the first AC electrokinetic region is a dielectrophoretic low field region; d. isolating the nucleic acid in a second AC electrokinetic field region, wherein the second AC electrokinetic field region is a dielectrophoretic high field region; and e. flushing the concentrated cells and/or other particulate material from the array;