mhurhangee/ep-ind-claims huggingface dataset:
A method utilizable in a wireless communication network, the wireless communication network comprising multiple base stations, wherein each base station is able to send and receive communications to another base station in the wireless communication network and to a first plurality of user equipment, wherein a second plurality of user equipment is created by each of said user equipment in the first plurality of user equipment that has formed pairing with another user equipment, each such pairing defined as a device to device link, the method comprising the steps of: sending power control parameters from a first base station in the wireless communication network to a user equipment in the second plurality of user equipment, the power control parameters usable in said user equipment in the second plurality of user equipment to determine a power control function, P D, and thereafter using the power control function to determine a calculated value of transmit power, the calculated value is the minimum of: the power control function, and a conventional power control value whose path loss is the path loss to the first base station, wherein said power control parameters is selected from a group comprising: a higher-layer parameter for a channel and transmission mode, a modulation and coding scheme, a cumulative transmit power control command, and a path loss number between user equipment forming the device to device link, and wherein said power control function is determined by higher layer parameters, or, path loss between user equipment in a device to device link, or modulation and coding scheme used for user equipment in a device to device link, or both the higher layer parameters and the path loss between user equipment forming the device to device link. sending power control parameters from a first base station in the wireless communication network to a user equipment in the second plurality of user equipment, the power control parameters usable in said user equipment in the second plurality of user equipment to determine a power control function, P D, and thereafter using the power control function to determine a calculated value of transmit power, the calculated value is the minimum of: the power control function, and a conventional power control value whose path loss is the path loss to the first base station, wherein said power control parameters is selected from a group comprising: a higher-layer parameter for a channel and transmission mode, a modulation and coding scheme, a cumulative transmit power control command, and a path loss number between user equipment forming the device to device link, and wherein said power control function is determined by higher layer parameters, or, path loss between user equipment in a device to device link, or modulation and coding scheme used for user equipment in a device to device link, or both the higher layer parameters and the path loss between user equipment forming the device to device link.
A chimeric antigen receptor, comprising an extracellular domain capable of binding to a tumor associated antigen, a CD28 transmembrane domain, a CD28 intracellular signaling domain, a CD3ζ intracellular signaling domain and a Toll-like receptor 1 or Toll-like receptor 2 intracellular signaling domain connected with each other in sequence from the N-terminal side, wherein the extracellular domain is a single chain variable fragment of an antibody binding to the tumor associated antigen.
A bifurcation graft deployment system, comprising: an elongate, flexible catheter body for deploying a bifurcated graft comprising a proximal end and a distal end, and comprising an outer sheath and an inner core that is coupled to a distal tip, wherein the bifurcated graft is contained within the outer sheath and the distal tip that is axially moveable with respect to the outer sheath such that the proximal retraction of the outer sheath with respect to the inner core and distal tip exposes the bifurcated graft from the distal end of the catheter body; a main vessel graft restraint comprising a main peelable cover for restraining a main vessel portion of the bifurcated graft, wherein the main peelable cover is secured to a main release wire; a first branch vessel graft restraint comprising a first peelable cover for restraining a first branch vessel portion of the bifurcated graft, wherein the first peelable cover is secured to a first branch release wire; and a second branch vessel graft restraint for restraining a second branch vessel portion of the bifurcated graft, wherein each of the main vessel graft restraint, first branch vessel graft restraint, and the second branch vessel graft restraint are positioned within the catheter body in a graft loaded condition. an elongate, flexible catheter body for deploying a bifurcated graft comprising a proximal end and a distal end, and comprising an outer sheath and an inner core that is coupled to a distal tip, wherein the bifurcated graft is contained within the outer sheath and the distal tip that is axially moveable with respect to the outer sheath such that the proximal retraction of the outer sheath with respect to the inner core and distal tip exposes the bifurcated graft from the distal end of the catheter body; a main vessel graft restraint comprising a main peelable cover for restraining a main vessel portion of the bifurcated graft, wherein the main peelable cover is secured to a main release wire; a first branch vessel graft restraint comprising a first peelable cover for restraining a first branch vessel portion of the bifurcated graft, wherein the first peelable cover is secured to a first branch release wire; and a second branch vessel graft restraint for restraining a second branch vessel portion of the bifurcated graft, wherein each of the main vessel graft restraint, first branch vessel graft restraint, and the second branch vessel graft restraint are positioned within the catheter body in a graft loaded condition.
Rotating spit gas grilling device comprising a) at least two grilling units (3a, 3b,...) each comprising aa) a grilling area, ab) a mixed gas chamber through which a mixed gas streams and ac) at least one burner plate which - delimits the mixed gas chamber on the side facing towards the grilling area and - is permeable for the mixed gas arranged in the mixed gas chamber, ad) the mixed gas chamber comprising a sub-section having a reduced depth and ae) on the side of the mixed gas chamber facing away from the at least one burner plate behind the sub-section of the mixed gas chamber at least one component guiding the burning gas or mixed gas and/or processing the burning gas or mixed gas being arranged, wherein the grilling units (3a, 3b,...) are arranged vertically above one another in a way such that the grilling areas (4a, 4b,...) of the grilling units (3a, 3b,...) completing to a continuous total grilling area. a) at least two grilling units (3a, 3b,...) each comprising aa) a grilling area, ab) a mixed gas chamber through which a mixed gas streams and ac) at least one burner plate which - delimits the mixed gas chamber on the side facing towards the grilling area and - is permeable for the mixed gas arranged in the mixed gas chamber, ad) the mixed gas chamber comprising a sub-section having a reduced depth and ae) on the side of the mixed gas chamber facing away from the at least one burner plate behind the sub-section of the mixed gas chamber at least one component guiding the burning gas or mixed gas and/or processing the burning gas or mixed gas being arranged, wherein the grilling units (3a, 3b,...) are arranged vertically above one another in a way such that the grilling areas (4a, 4b,...) of the grilling units (3a, 3b,...) completing to a continuous total grilling area. aa) a grilling area, ab) a mixed gas chamber through which a mixed gas streams and ac) at least one burner plate which - delimits the mixed gas chamber on the side facing towards the grilling area and - is permeable for the mixed gas arranged in the mixed gas chamber, - delimits the mixed gas chamber on the side facing towards the grilling area and - is permeable for the mixed gas arranged in the mixed gas chamber, ad) the mixed gas chamber comprising a sub-section having a reduced depth and ae) on the side of the mixed gas chamber facing away from the at least one burner plate behind the sub-section of the mixed gas chamber at least one component guiding the burning gas or mixed gas and/or processing the burning gas or mixed gas being arranged,
A transformer, comprising: at least one magnetic core (6, 10, 13, 16), each having at least one window; one primary side winding passing through the at least one window of each of all the magnetic cores (6, 10, 13, 16); and at least one secondary side winding (7, 8), each passing through the at least one window of one corresponding magnetic core (6, 10, 13, 16), wherein a wire forms the primary side winding, and the wire is sequentially covered with a first solid insulating layer, a grounded shielding layer and a second solid insulating layer from inside to outside along a radial direction of the wire, wherein the grounded shielding layer is connected to a reference ground, wherein the primary side winding has a first voltage with respect to the reference ground, the secondary side winding (7, 8) has a second voltage with respect to the reference ground, and the second voltage is greater than 50 times of the first voltage; wherein a space between the grounded shielding layer and the second solid insulating layer is further covered with a semi-conductive layer. at least one magnetic core (6, 10, 13, 16), each having at least one window; one primary side winding passing through the at least one window of each of all the magnetic cores (6, 10, 13, 16); and at least one secondary side winding (7, 8), each passing through the at least one window of one corresponding magnetic core (6, 10, 13, 16), wherein a wire forms the primary side winding, and the wire is sequentially covered with a first solid insulating layer, a grounded shielding layer and a second solid insulating layer from inside to outside along a radial direction of the wire, wherein the grounded shielding layer is connected to a reference ground, wherein the primary side winding has a first voltage with respect to the reference ground, the secondary side winding (7, 8) has a second voltage with respect to the reference ground, and the second voltage is greater than 50 times of the first voltage; wherein a space between the grounded shielding layer and the second solid insulating layer is further covered with a semi-conductive layer.
A method of preparing a polyester fiber, comprising: melt spinning a polyester polymer having intrinsic viscosity of 0.8 dl/g or more at 270 to 310 °C to produce undrawn polyester yarn; and drawing the undrawn polyester yarn; wherein the drawing process is carried out after passing the undrawn yarn through a godet roller so that an oil pickup amount is 0.35% to 0.7%; a first draw ratio is 3.5 to 4.5 and a second draw ratio is 0.9 to 1.8 in the drawing process; and a first godet roller is operated at a temperature of 60 to 100 °C at a speed of 400 to 700 m/min, a second godet roller is operated at a temperature of 80 to 120 °C at a speed of 400 to 700 m/min, a third godet roller is operated at a temperature of 100 to 140 °C at a speed of 1800 to 2500 m/min, a fourth godet roller is operated at a temperature of 160 to 250 °C at a speed of 2800 to 3500 m/min, and a fifth godet roller is operated at a temperature of 90 to 130 °C at a speed of 2800 to 3500 m/min, in the drawing process. melt spinning a polyester polymer having intrinsic viscosity of 0.8 dl/g or more at 270 to 310 °C to produce undrawn polyester yarn; and drawing the undrawn polyester yarn;
An insufflation and smoke evacuation system for use during laparoscopic surgical procedures, comprising: a) a pump for circulating pressurized gas within the system; b) a dual lumen cannula configured to provide access to the abdominal cavity of a patient, wherein the dual lumen cannula includes a proximal housing, an outer lumen for fluid communication with a source of insufflation fluid and a central lumen in fluid communication with the pump, the outer lumen and the central lumen each extending from the proximal housing, wherein the proximal housing includes: • a first flow port communicating with the central lumen, • a second flow port communicating with the outer lumen, and • an end cap having a main access port communicating with the central lumen, wherein a duckbill seal is supported within the proximal housing between the main access port and the first flow port to prevent the egress of pressurized gas through the main access port; and c) a second cannula for introduction into the abdominal cavity of the patient, which includes a single lumen in fluid communication with a suction side of the pump for removing gas from the abdominal cavity. a) a pump for circulating pressurized gas within the system; b) a dual lumen cannula configured to provide access to the abdominal cavity of a patient, wherein the dual lumen cannula includes a proximal housing, an outer lumen for fluid communication with a source of insufflation fluid and a central lumen in fluid communication with the pump, the outer lumen and the central lumen each extending from the proximal housing, wherein the proximal housing includes: • a first flow port communicating with the central lumen, • a second flow port communicating with the outer lumen, and • an end cap having a main access port communicating with the central lumen, wherein a duckbill seal is supported within the proximal housing between the main access port and the first flow port to prevent the egress of pressurized gas through the main access port; and • a first flow port communicating with the central lumen, • a second flow port communicating with the outer lumen, and • an end cap having a main access port communicating with the central lumen, c) a second cannula for introduction into the abdominal cavity of the patient, which includes a single lumen in fluid communication with a suction side of the pump for removing gas from the abdominal cavity.
A focus assist circuit for a camera viewfinder having an LCD, LED or OLED flat panel display, the focus assist circuit comprising: a video amplifier (238, 302, 402, 502) configured to amplify a video signal; a video gain controller configured to adjust a gain of the video amplifier (238, 302, 402, 502) to provide peaking headroom; a user interface including a contrast control and a peaking headroom control; and a peaking processor (236, 304, 404, 504) configured to adjust the amplified video signal to generate an output signal with distinguishing illuminated signal peaks when the output signal is emitted based on the LCD, the LED or the OLED flat panel display, wherein the video gain controller comprises a video gain signal generator configured to generate a video gain signal for adjusting the gain of the video amplifier (238, 302, 402, 502) based on a value of the contrast control selected by the user interface, and wherein the video gain controller further comprises a video gain limiter configured to limit the video gain signal based on a percentage of a maximum luminance of the camera viewfinder and based on the peaking headroom control selected by the user interface. a video amplifier (238, 302, 402, 502) configured to amplify a video signal; a video gain controller configured to adjust a gain of the video amplifier (238, 302, 402, 502) to provide peaking headroom; a user interface including a contrast control and a peaking headroom control; and a peaking processor (236, 304, 404, 504) configured to adjust the amplified video signal to generate an output signal with distinguishing illuminated signal peaks when the output signal is emitted based on the LCD, the LED or the OLED flat panel display, wherein the video gain controller comprises a video gain signal generator configured to generate a video gain signal for adjusting the gain of the video amplifier (238, 302, 402, 502) based on a value of the contrast control selected by the user interface, and wherein the video gain controller further comprises a video gain limiter configured to limit the video gain signal based on a percentage of a maximum luminance of the camera viewfinder and based on the peaking headroom control selected by the user interface.
Wiper blade for a screen wiper system of a motor vehicle, comprising: - a support element for holding a wiping lamella; - an identification unit with a memory for storing data, wherein the identification unit is designed to transmit the data contactlessly. - a support element for holding a wiping lamella; - an identification unit with a memory for storing data, wherein the identification unit is designed to transmit the data contactlessly.
A method for producing an ester polyol, comprising: transesterifying a first ester polyol with a primary polyol to produce a second ester polyol, wherein a hydroxyl value of the second ester polyol is greater than a hydroxyl value (HV i) of the first ester polyol, and wherein the first ester polyol is prepared by the sequential steps of: reacting a fatty acid distillate with ozone in the presence of a reactant and a catalyst to produce reaction mixture, wherein the ozone comprises at least two moles of ozone per carbon-to-carbon double bond of the fatty acid distillate; and refluxing the reaction mixture to produce the first ester polyol having a hydroxyl value (HV i). reacting a fatty acid distillate with ozone in the presence of a reactant and a catalyst to produce reaction mixture, wherein the ozone comprises at least two moles of ozone per carbon-to-carbon double bond of the fatty acid distillate; and refluxing the reaction mixture to produce the first ester polyol having a hydroxyl value (HV i).
An isolated antibody or an antigen-binding fragment thereof which specifically binds to an epitope on prostate specific membrane antigen (PSMA) and is able to bind live prostate tumour cells, wherein the antibody comprises: (a) a heavy chain encoded by a nucleic acid molecule comprising the heavy chain coding region or regions of the nucleotide sequence set forth as SEQ ID NO: 2, and (b) a light chain encoded by a nucleic acid molecule comprising the light chain coding region or regions of the nucleotide sequence set forth as SEQ ID NO: 8. (a) a heavy chain encoded by a nucleic acid molecule comprising the heavy chain coding region or regions of the nucleotide sequence set forth as SEQ ID NO: 2, and (b) a light chain encoded by a nucleic acid molecule comprising the light chain coding region or regions of the nucleotide sequence set forth as SEQ ID NO: 8.
A surgical tracking system for assisting an operator to perform a laparoscopic surgery of a human body, said surgical tracking system comprising: a. at least one endoscope adapted to acquire real-time images of a surgical environment within said human body; b. a maneuvering subsystem adapted to control the spatial position of said endoscope during said laparoscopic surgery; and, c. a tracking subsystem in communication with said maneuvering subsystem, adapted to control the maneuvering system so as to direct and modify the spatial position of said endoscope to a region of interest; wherein said tracking subsystem comprises a data processor; said data processor is adapted to perform real-time image processing of said surgical environment and to instruct said maneuvering subsystem to modify the spatial position of said endoscope according to input received from a maneuvering function f(t); said maneuvering function f(t) is adapted to (a) receive input from at least two instructing functions g i (t), where i is 1,..., n and n ≥ 2; where t is time; i and n are integers; and, to (b) output instructions to said maneuvering subsystem based on said input from said at least two instructing functions g i (t), so as to spatially position said endoscope to said region of interest; wherein each of said instructing functions g i (t) is provided with α i (t) where i is an integer greater than or equal to 1; where α i (t) are weighting functions of each g i (t), and a n is total number of instruction functions; further wherein said weighting functions α i (t) are time-varying functions, wherein the value of which is determined by said operators. a. at least one endoscope adapted to acquire real-time images of a surgical environment within said human body; b. a maneuvering subsystem adapted to control the spatial position of said endoscope during said laparoscopic surgery; and, c. a tracking subsystem in communication with said maneuvering subsystem, adapted to control the maneuvering system so as to direct and modify the spatial position of said endoscope to a region of interest;
Method for producing a vehicle head for a car body of a vehicle, in particular rail vehicle, - wherein the vehicle head is composed of at least four modules (100, 200, 300, 400), namely a roof module, consisting of at least one roof hood, two side wall modules (200, 300) and a window lower belt module, - wherein with at least one of the modules (100, 200, 300, 400), at least two module parts are connected to one another by means of laser welding metal interfaces between the module parts, characterised in that - in order to produce the at least one roof hood, at least four roof hood parts, namely at least one roof part, two side roof parts and a front part forming an interface to a front window of the vehicle head are laser welded to one another. - wherein the vehicle head is composed of at least four modules (100, 200, 300, 400), namely a roof module, consisting of at least one roof hood, two side wall modules (200, 300) and a window lower belt module, - wherein with at least one of the modules (100, 200, 300, 400), at least two module parts are connected to one another by means of laser welding metal interfaces between the module parts, characterised in that - in order to produce the at least one roof hood, at least four roof hood parts, namely at least one roof part, two side roof parts and a front part forming an interface to a front window of the vehicle head are laser welded to one another.