mhurhangee/patent-ind-claim-en huggingface dataset:
An electric heater for heating a pipe , in particular a pipe of a heat pump, comprising at least a first electric resistor and a metal body , wherein the metal body is provided with - a longitudinal housing , defining a first axis (X), which is open at the ends thereof and having a longitudinal opening along said first axis (X) for inserting the pipe into the longitudinal housing ; - at least one first longitudinal through hole , defining a second axis (A) parallel to the first axis (X), said first electric resistor being inserted into the first through hole ; - a first wall which separates the first electric resistor from the longitudinal housing , whereby the heat generated by the first electric resistor can be transmitted by conduction to the longitudinal housing ; wherein said longitudinal opening is laterally delimited by longitudinal end projections of the longitudinal housing , spaced apart from each other and adapted to be moved close to each other upon inserting the pipe into the longitudinal housing ; characterized in that said longitudinal end projections are folded towards the exterior of said longitudinal housing . wherein the metal body is provided with - a longitudinal housing , defining a first axis (X), which is open at the ends thereof and having a longitudinal opening along said first axis (X) for inserting the pipe into the longitudinal housing ; - at least one first longitudinal through hole , defining a second axis (A) parallel to the first axis (X), said first electric resistor being inserted into the first through hole ; - a first wall which separates the first electric resistor from the longitudinal housing , whereby the heat generated by the first electric resistor can be transmitted by conduction to the longitudinal housing ; - a longitudinal housing , defining a first axis (X), which is open at the ends thereof and having a longitudinal opening along said first axis (X) for inserting the pipe into the longitudinal housing ; - at least one first longitudinal through hole , defining a second axis (A) parallel to the first axis (X), said first electric resistor being inserted into the first through hole ; - a first wall which separates the first electric resistor from the longitudinal housing , whereby the heat generated by the first electric resistor can be transmitted by conduction to the longitudinal housing ; wherein said longitudinal opening is laterally delimited by longitudinal end projections of the longitudinal housing , spaced apart from each other and adapted to be moved close to each other upon inserting the pipe into the longitudinal housing ; characterized in that said longitudinal end projections are folded towards the exterior of said longitudinal housing .
A method for spectrophotometric study of gold plasmonic nanoparticles, the method comprising the steps of: - directing light from a light beam emitter through a first optical path onto a sample that comprises the nanoparticles, thereby sequentially illuminating the entirety of the sample at various wavelengths, - detecting the scattered light after it goes through a dark-field objective by an array of photodetectors arranged on a second optical path defined as the path of the light beam after coming in contact with the sample , - processing the light beam received by the photodetectors , by processing means having a correlation, wherein each one of the photodetectors corresponds to a spatial point on the sample and, - normalizing the scattered light of each nanoparticle using the darker region around the particle as a reference signal. - directing light from a light beam emitter through a first optical path onto a sample that comprises the nanoparticles, thereby sequentially illuminating the entirety of the sample at various wavelengths, - detecting the scattered light after it goes through a dark-field objective by an array of photodetectors arranged on a second optical path defined as the path of the light beam after coming in contact with the sample , - processing the light beam received by the photodetectors , by processing means having a correlation, wherein each one of the photodetectors corresponds to a spatial point on the sample and, - normalizing the scattered light of each nanoparticle using the darker region around the particle as a reference signal.
An actuating mechanism for an intramedullary nail , the actuating mechanism comprising an actuator comprising: at least one magnet rotatably accommodated in a magnet housing and having an axis , the magnet being configured for rotation about the magnet axis; wherein the actuator is configured to at least partially surround an intramedullary nail , characterised in that the actuator comprises an actuator housing configured to at least partially surround a limb in which the intramedullary nail is present and the axis of the at least one magnet is non-parallel to an axis of the intramedullary nail .
A reactor cleaning apparatus , comprising: a fixing part having a partial region inserted into a hole formed in an upper portion of a reactor to be coupled to the reactor and fixing a pipe ; the pipe inserted into a hole formed in the fixing part , protruding downward from the fixing part , and having a length adjustable in a vertical direction; a spray nozzle provided at a lower end of the pipe ; and a screener provided on a lower side surface of the pipe , characterized in that the pipe is a winding-up type pipe having multiple-stage pipes overlapped in a layer form. a fixing part having a partial region inserted into a hole formed in an upper portion of a reactor to be coupled to the reactor and fixing a pipe ; the pipe inserted into a hole formed in the fixing part , protruding downward from the fixing part , and having a length adjustable in a vertical direction; a spray nozzle provided at a lower end of the pipe ; and a screener provided on a lower side surface of the pipe , characterized in that the pipe is a winding-up type pipe having multiple-stage pipes overlapped in a layer form.
Sheet-fed printing unit , the sheet-fed printing unit being configured as a screen printing unit and comprising at least one screen printing forme cylinder and at least one impression cylinder cooperating therewith, and the screen printing unit comprising at least one frame , which comprises at least two frame side walls (702; 703) located opposite one another in a transverse direction (A), and the screen printing unit comprising at least one first base module and at least one second base module , and each base module in each case comprising two stationary base side walls (706; 707), which each have a one-piece design and are each an integral part of a respective frame side wall (702; 703), and the respective base module in each case including four installation areas (726; 727; 728; 729) for rotational transport bodies (708; 709; 711; 712; 713; 714), and the relative position of the four installation areas (726; 727; 728; 729) of the first base module with respect to one another coinciding with the relative position of the four installation areas (726; 727; 728; 729) of the second base module with respect to one another, and the respective first installation area along a transport path provided for a transport of sheets and the respective second installation area of the respective base module along this transport path forming a respective selection group of the respective base module , and an impression cylinder which cooperates with a screen printing forme cylinder being arranged in exactly one of the installation areas (726; 727) of the selection group of the first base module , and a respective rotational transport body (708; 709; 711; 712; 713; 714) being arranged in each of the at least four installation areas (726; 727; 728; 729) of the two base modules , and a rotational transport body (708; 709; 711; 712; 713; 714) being arranged in at least one installation area (726; 727; 728; 729) of the first base module and functionally different than in a corresponding installation area (726; 727; 728; 729), in terms of its installation position, of the second base module .
Casting tool for metal die casting or metal gravity die casting, in particular aluminium die casting or aluminium gravity die casting, comprising a base material forming the casting mould consisting of steel, in particular tool steel, wherein a wear protection layer mixed with tungsten is applied to at least partial areas of the surface of the base material, characterised in that the wear protection layer is produced by welding a welding filler material containing tungsten carbide onto the surface of the carrier material, wherein the filler metal used comprises tungsten fused carbide consisting of a eutectic mixture of WC and W 2 C.
Hollow conductor system comprising at least two hollow conductor bundles and at least two separately formed connecting members wherein each hollow conductor bundle comprises at least two hollow conductors (22 - 32), characterized in that the hollow conductors (22 - 32) of each hollow conductor bundle are separated by each other via a common intermediate wall (34 - 40) wherein each connecting member (16 - 20) connects one hollow conductor (22 - 32) of one hollow conductor bundle with a corresponding hollow conductor (22 - 32) of the other hollow conductor bundle such that a hollow conductor line (46 - 50) and a void are provided, wherein the void is limited by the connecting member (16- 20), and an adjacent hollow conductor line (46-50), such that electromagnetic waves are configured to propagate through the hollow conductor line (46 - 50) such that they can be transferred from one point to another point.
Vacuum toilet with, a toilet bowl , a transfer container with a first container interior and a flushing water container with a second tank interior , wherein the flushing water container is designed and connected in such a way that flushing water can be conveyed from the flushing water container into the toilet bowl with the aid of an overpressure which can be applied in the flushing water container , and, wherein the transfer container is designed and connected in such a way that suction mass can be sucked out of the toilet bowl into the transfer container with the aid of a vacuum which can be applied in the transfer container , characterized in that in that the transfer container and the flushing water container are formed by a container body which has a partition wall with a first side and a second side facing away from the first side , wherein the first side delimits the first container interior of the transfer container and the second side delimits the second container interior of the flushing water container . a toilet bowl , a transfer container with a first container interior and a flushing water container with a second tank interior , wherein the flushing water container is designed and connected in such a way that flushing water can be conveyed from the flushing water container into the toilet bowl with the aid of an overpressure which can be applied in the flushing water container , and, wherein the transfer container is designed and connected in such a way that suction mass can be sucked out of the toilet bowl into the transfer container with the aid of a vacuum which can be applied in the transfer container , characterized in that in that the transfer container and the flushing water container are formed by a container body which has a partition wall with a first side and a second side facing away from the first side , wherein the first side delimits the first container interior of the transfer container and the second side delimits the second container interior of the flushing water container .
Method for producing a component from a γ-TiAl alloy, in which, in a first step, a forging blank made of a γ-TiAl alloy is built up from a powder material by an additive method and subsequently, in a second step, the forging blank is reshaped to form a semi-finished product, the degree of reshaping over the entire forging blank being so high that, in a third step, the structure is recrystallized during a heat treatment, characterized in that, in additive manufacturing process, the forging blank is produced so as to have at least two regions of different chemical composition, a different chemical composition in the forging blank being adjusted during the additive manufacturing process by evaporating aluminum at a different intensity during melting of the powder.
An image capturing assembly for use in an endoscope tip, the image capturing assembly comprising: a single image sensor , wherein the single image sensor has a light sensitive surface for receiving light, and for initiating conversion of the light into image data; three lens assemblies , wherein each of the lens assemblies includes a lens , wherein each of the lens assemblies is configured to direct light toward the light sensitive surface of the single image sensor, and wherein each of the lens assemblies is configured to direct light along a different path than the other lens assemblies, toward the light sensitive surface of the single image sensor; characterised in that the image capturing assembly further comprises: a step-wise rotatable optical element configured to receive light from at least two of the three lens assemblies, and deflect the light toward the light sensitive surface of the single image sensor; and at least one shutter operable to be shut and opened synchronously with said rotating optical element. a single image sensor , wherein the single image sensor has a light sensitive surface for receiving light, and for initiating conversion of the light into image data; three lens assemblies , wherein each of the lens assemblies includes a lens , wherein each of the lens assemblies is configured to direct light toward the light sensitive surface of the single image sensor, and wherein each of the lens assemblies is configured to direct light along a different path than the other lens assemblies, toward the light sensitive surface of the single image sensor; characterised in that the image capturing assembly further comprises: a step-wise rotatable optical element configured to receive light from at least two of the three lens assemblies, and deflect the light toward the light sensitive surface of the single image sensor; and at least one shutter operable to be shut and opened synchronously with said rotating optical element.
A two component cancer therapeutic comprising: (a) a small conjugate molecule (SCM) comprising a targeted moiety conjugated to a tumor receptor ligand, wherein the tumor receptor ligand is folate; and (b) chimeric antigen receptor (CAR)-expressing cytotoxic lymphocytes, wherein the CAR is a fusion protein comprising a recognition region, a co-stimulation domain and an activation signaling domain, and wherein the CAR has binding specificity for the targeted moiety or can be bound by the targeted moiety. (a) a small conjugate molecule (SCM) comprising a targeted moiety conjugated to a tumor receptor ligand, wherein the tumor receptor ligand is folate; and (b) chimeric antigen receptor (CAR)-expressing cytotoxic lymphocytes, wherein the CAR is a fusion protein comprising a recognition region, a co-stimulation domain and an activation signaling domain, and wherein the CAR has binding specificity for the targeted moiety or can be bound by the targeted moiety.
An injection molding machine comprising: a plasticizing cylinder connected to a cavity space formed in a mold unit and melting a molding material to mold a molding product in the cavity space ; and a control unit configured to control temperature raising of the plasticizing cylinder , based on a temperature of the mold unit and a set time. a plasticizing cylinder connected to a cavity space formed in a mold unit and melting a molding material to mold a molding product in the cavity space ; and a control unit configured to control temperature raising of the plasticizing cylinder , based on a temperature of the mold unit and a set time.
A method for coloring at least a selected portion of a surface of a molded unit (1; 22; 50; 202) of concrete, the method comprising: adding colorant by spraying to a selected surface portion of the molded unit (1; 22; 50; 202) of concrete through one or more openings (26; 206) in a stencil (25; 205) onto the selected surface portion, the stencil (25; 205) blocking the colorant from being applied onto selected other portions of the molded unit (1; 22; 50; 202); wherein the colorant is added to the selected surface portion of the uncured concrete after the molded unit (1; 22; 50; 202) has been cast; characterised in that : the molded unit (1; 22; 50; 202) is of uncured dry-cast concrete; the method further including: providing the selected surface portion on an upwardly directed face of the molded unit (1; 22; 50; 202); orienting the stencil (25; 205) above and spaced from the molded unit (1; 22; 50; 202); applying multiple sections of contrast or color to portions of the same molded unit (1; 22; 50; 202). adding colorant by spraying to a selected surface portion of the molded unit (1; 22; 50; 202) of concrete through one or more openings (26; 206) in a stencil (25; 205) onto the selected surface portion, the stencil (25; 205) blocking the colorant from being applied onto selected other portions of the molded unit (1; 22; 50; 202); wherein the colorant is added to the selected surface portion of the uncured concrete after the molded unit (1; 22; 50; 202) has been cast; the molded unit (1; 22; 50; 202) is of uncured dry-cast concrete; the method further including: providing the selected surface portion on an upwardly directed face of the molded unit (1; 22; 50; 202); orienting the stencil (25; 205) above and spaced from the molded unit (1; 22; 50; 202); applying multiple sections of contrast or color to portions of the same molded unit (1; 22; 50; 202). providing the selected surface portion on an upwardly directed face of the molded unit (1; 22; 50; 202); orienting the stencil (25; 205) above and spaced from the molded unit (1; 22; 50; 202); applying multiple sections of contrast or color to portions of the same molded unit (1; 22; 50; 202).
Procedure for monitoring and/or measuring a medium, which is at least temporarily two-phase, and flows through a pipe, wherein said medium has a first phase, particularly gaseous, with a first density and a second phase, particularly liquid, with a second density that is different to the first density, using a bluff body projecting into the flowing medium and a first vortex sensor particularly located downstream or inside the bluff body , wherein said procedure comprises the following steps: - Generation of Karman vortices in the flowing medium at least in the area of the vortex sensor using the bluff body , wherein the vortices are shed by the bluff body at a vortex shedding frequency (ω v ) that depends on a current flow velocity of the flowing medium; - At least a sub-volume of the second phase of the flowing medium is allowed to flow along a tube wall in the area of the vortex sensor ; - Use of the vortex sensor to record periodic pressure variations caused by the Karman vortices in the flowing medium, for the purpose of generating a measuring signal corresponding to the pressure variations; - Selection, from the measuring signal, of a useful signal component that has a, particularly narrow, frequency band (V) containing the vortex shedding frequency (ω v ), particularly with a relative bandwidth that is less than 50% of the current vortex shedding frequency, wherein the current vortex shedding frequency corresponds to the center frequency of the frequency bandwidth; and - Detection of the presence of the second phase of the flowing medium; characterized in that the presence of the second phase of the flowing medium is detected using the useful signal component selected from the measuring signal on the basis of a kurtosis of the useful signal component, particularly also on the basis of a standard deviation of an amplitude curve of the useful signal component. - Generation of Karman vortices in the flowing medium at least in the area of the vortex sensor using the bluff body , wherein the vortices are shed by the bluff body at a vortex shedding frequency (ω v ) that depends on a current flow velocity of the flowing medium; - At least a sub-volume of the second phase of the flowing medium is allowed to flow along a tube wall in the area of the vortex sensor ; - Use of the vortex sensor to record periodic pressure variations caused by the Karman vortices in the flowing medium, for the purpose of generating a measuring signal corresponding to the pressure variations; - Selection, from the measuring signal, of a useful signal component that has a, particularly narrow, frequency band (V) containing the vortex shedding frequency (ω v ), particularly with a relative bandwidth that is less than 50% of the current vortex shedding frequency, wherein the current vortex shedding frequency corresponds to the center frequency of the frequency bandwidth; and - Detection of the presence of the second phase of the flowing medium;
A method of calibrating a processing system having a scanner device for scanning a workpiece carried on a conveyor and an actuator configured to move relative to the conveyor, the method characterised by comprising: (a) loading at least one target simulating a workpiece on the conveyor; (b) scanning the target with a scanner device for locating the target on the conveyor and ascertaining physical parameters of the target as the target is transported by the conveyor ; (c) marking the target with the location or path of movement of the actuator relative to the target as the target is being transported by the conveyor ; (d) removing the marked target from the conveyor ; (e) reloading the marked target on the conveyor ; (f) rescanning the marked target with a scanner device to locate the location or path of movement of the actuator relative to the target ; and (g) calibrating the position of the actuator relative to the location of the scanner device in the direction laterally of the conveyor and calibrating the position of the actuator relative to the scanner device in the direction along the length of the conveyor based on the located position or path of movement of the actuator relative to the target . (a) loading at least one target simulating a workpiece on the conveyor; (b) scanning the target with a scanner device for locating the target on the conveyor and ascertaining physical parameters of the target as the target is transported by the conveyor ; (c) marking the target with the location or path of movement of the actuator relative to the target as the target is being transported by the conveyor ; (d) removing the marked target from the conveyor ; (e) reloading the marked target on the conveyor ; (f) rescanning the marked target with a scanner device to locate the location or path of movement of the actuator relative to the target ; and (g) calibrating the position of the actuator relative to the location of the scanner device in the direction laterally of the conveyor and calibrating the position of the actuator relative to the scanner device in the direction along the length of the conveyor based on the located position or path of movement of the actuator relative to the target .