mhurhangee/patent-ind-claim-en huggingface dataset:
A cutting machine for cutting a high-temperature moving object to be cut while moving in synchronization with movement of the object to be cut, comprising: a cutter configured to cut the object to be cut; a movement device configured to move the cutting machine in synchronization with the object to be cut; a water-cooling plate configured to cool the cutting machine; and a thermoelectric power generation device including a thermoelectric element for converting heat of the object to be cut into electric energy, wherein the water-cooling plate also serves to cool a low-temperature side of the thermoelectric element. a cutter configured to cut the object to be cut; a movement device configured to move the cutting machine in synchronization with the object to be cut; a water-cooling plate configured to cool the cutting machine; and a thermoelectric power generation device including a thermoelectric element for converting heat of the object to be cut into electric energy, wherein the water-cooling plate also serves to cool a low-temperature side of the thermoelectric element.
A phosphaplatin compound having a structure of formula II: or a pharmaceutically acceptable salt thereof, for use in the treatment of cancer wherein the phosphaplatin compound induces immunogenic cell death (ICD) in a subject having cancer, wherein R 3 is selected from substituted or unsubstituted aliphatic diamines.
A method of forming a surface layer comprising a first, second and third layer (L1, L2, L3), the method being characterised by : • forming a first layer (L1) comprising at least 50% by weight of fibres , • forming a second layer (L2) comprising at least 50% by weight of wear resistant particles , • forming a third layer (L3) comprising at least 50% by weight of particles of a thermosetting binder , and • applying heat and pressure to the first, second, and third layers, wherein the first layer (L1) is applied on a substrate, wherein the substrate is a core , the core being a wood fibre based board, and wherein separate materials, i.e. the fibres , the wear resistant particles and the thermosetting binder are applied in separate layers directly on the core and on each other, a chemical reaction and said heat and pressure of the pressing operation being used to combine and mix the fibres , the wear resistant particles , and the thermosetting binder after application on the core. • forming a first layer (L1) comprising at least 50% by weight of fibres , • forming a second layer (L2) comprising at least 50% by weight of wear resistant particles , • forming a third layer (L3) comprising at least 50% by weight of particles of a thermosetting binder , and • applying heat and pressure to the first, second, and third layers,
Turbogenerator device for producing electrical energy, the turbogenerator device comprising: - a cylindrical tube open at the ends thereof and configured for allowing the passage of a volume of fluid therethrough; - a hydraulic turbine axially and mechanically coupled to at least one generator element through a coupling shaft , with the respective elements being housed inside said cylindrical tube and defined as a turbogenerator unit, and with said turbogenerator unit being configured for transforming the mechanical energy of the fluid into electrical energy, wherein the generator element axially coupled to the turbine comprises a leak-tight tubular casing which is leak-tight with respect to the circulating fluid inside the cylindrical tube , wherein said casing comprises therein: - a rotor coupled to said coupling shaft and a stator at least partially surrounding said rotor , wherein said casing has two bases: one of the bases comprising a hole for the passage of the coupling shaft to the turbine , and the other base comprising an elastic diaphragm configured for absorbing pressures from the outside of the tubular casing to the inside thereof; the turbogenerator device being characterized in that the tubular casing further comprises: - a space defined between the stator and the inner surface of the leak-tight tubular casing , wherein said space contains an antifreeze liquid . - a cylindrical tube open at the ends thereof and configured for allowing the passage of a volume of fluid therethrough; - a hydraulic turbine axially and mechanically coupled to at least one generator element through a coupling shaft , with the respective elements being housed inside said cylindrical tube and defined as a turbogenerator unit, and with said turbogenerator unit being configured for transforming the mechanical energy of the fluid into electrical energy, wherein the generator element axially coupled to the turbine comprises a leak-tight tubular casing which is leak-tight with respect to the circulating fluid inside the cylindrical tube , wherein said casing comprises therein: - a rotor coupled to said coupling shaft and a stator at least partially surrounding said rotor , wherein said casing has two bases: one of the bases comprising a hole for the passage of the coupling shaft to the turbine , and the other base comprising an elastic diaphragm configured for absorbing pressures from the outside of the tubular casing to the inside thereof; - a space defined between the stator and the inner surface of the leak-tight tubular casing , wherein said space contains an antifreeze liquid .
A production apparatus for the production of a surgical guide, including: a receptor assembly for receiving an impression element providing an impression of a surgical site; a surface configuration recorder for recording a configuration of a surface of the impression element received by the receptor assembly to produce surface data for registering that impression element with anatomical features of a patient's anatomy and with the production apparatus ; and a modification tool for modifying the impression element received by the receptor assembly , wherein the modification tool and impression element are positionable in a plurality of relative positions; and a processor for determining, from a modification plan and a registration of the apparatus with the impression element received by the receptor assembly , a desired relative position of the modification tool with respect to that impression element to enable that impression element to be modified in accordance with that modification plan and wherein the processor is configured to control the modification tool to modify the impression element in accordance with the modification plan to produce the surgical guide, wherein the modification plan is a plan for modifying the impression element and is derived from a surgical plan and a registration of that impression element with anatomical features of a respective patient's anatomy. a receptor assembly for receiving an impression element providing an impression of a surgical site; a surface configuration recorder for recording a configuration of a surface of the impression element received by the receptor assembly to produce surface data for registering that impression element with anatomical features of a patient's anatomy and with the production apparatus ; and a modification tool for modifying the impression element received by the receptor assembly , wherein the modification tool and impression element are positionable in a plurality of relative positions; and a processor for determining, from a modification plan and a registration of the apparatus with the impression element received by the receptor assembly , a desired relative position of the modification tool with respect to that impression element to enable that impression element to be modified in accordance with that modification plan and wherein the processor is configured to control the modification tool to modify the impression element in accordance with the modification plan to produce the surgical guide, wherein the modification plan is a plan for modifying the impression element and is derived from a surgical plan and a registration of that impression element with anatomical features of a respective patient's anatomy.
Apparatus for classifying material to be classified, preferably into two fractions, preferably of soil, such as sticky, clayey soil, in particular intended for use in a quarry, comprising a machine frame and at least two spiral shafts rotatably mounted on the machine frame , wherein at least one spiral shaft having a core tube comprising at least one outer screw helix and at least one bearing journal , characterized in that the core tube is mounted elastically relative to the bearing journal by means of at least one elastic bearing means .
A method comprising: storing a first set of classifier data and a second set of classifier data, the first set being different from the second set, wherein each of the first set and the second set is configured to differentiate between different types of touches on a touch sensitive screen including a capacitive based sensor , and wherein the first set is adapted to differentiate between different types of touches on the touch sensitive screen with no cover film added on the screen and the second set is adapted to differentiate between different types of touches when a cover film is added to the screen ; identifying the cover film on the screen based on output from at least one conductive line or at least one array of conductive electrodes of the capacitive based sensor ; detecting an effective thickness of the cover film based on output from the at least one conductive line or the at least one array of conductive electrodes of the capacitive based sensor, wherein the effective thickness is an actual thickness of the cover film or another parameter that represents a level of degradation of the touch signal due to overall physical properties of the cover film; selecting the second set of classifier data based on the identifying; and reporting a touch interaction based on the second set of classifier data. storing a first set of classifier data and a second set of classifier data, the first set being different from the second set, wherein each of the first set and the second set is configured to differentiate between different types of touches on a touch sensitive screen including a capacitive based sensor , and wherein the first set is adapted to differentiate between different types of touches on the touch sensitive screen with no cover film added on the screen and the second set is adapted to differentiate between different types of touches when a cover film is added to the screen ; identifying the cover film on the screen based on output from at least one conductive line or at least one array of conductive electrodes of the capacitive based sensor ; detecting an effective thickness of the cover film based on output from the at least one conductive line or the at least one array of conductive electrodes of the capacitive based sensor, wherein the effective thickness is an actual thickness of the cover film or another parameter that represents a level of degradation of the touch signal due to overall physical properties of the cover film; selecting the second set of classifier data based on the identifying; and reporting a touch interaction based on the second set of classifier data.
An image forming apparatus comprising: a communicator to: request an external server (300, 300-1, 300-2, 300-3) for context information, when connection conditions for a connection from the image forming apparatus to the external server (300, 300-1, 300-2, 300-3) are met, and receive the context information from the external server (300, 300-1, 300-2, 300-3); a memory to store computer-executable instructions; and a controller to: predict a context pattern by using a plurality of pieces of context information received from the external server (300, 300-1, 300-2, 300-3) based on the extent of variation of data represented by the context information across the plurality of pieces of context information or the extent that data represented by the context information is repeated across the plurality of pieces of context information, determine, based on the predicted context pattern, whether to modify system environment setting information of the image forming apparatus, and modify a setting value of the system environment setting information based on a result of the determination. a communicator to: request an external server (300, 300-1, 300-2, 300-3) for context information, when connection conditions for a connection from the image forming apparatus to the external server (300, 300-1, 300-2, 300-3) are met, and receive the context information from the external server (300, 300-1, 300-2, 300-3); request an external server (300, 300-1, 300-2, 300-3) for context information, when connection conditions for a connection from the image forming apparatus to the external server (300, 300-1, 300-2, 300-3) are met, and receive the context information from the external server (300, 300-1, 300-2, 300-3); a memory to store computer-executable instructions; and a controller to: predict a context pattern by using a plurality of pieces of context information received from the external server (300, 300-1, 300-2, 300-3) based on the extent of variation of data represented by the context information across the plurality of pieces of context information or the extent that data represented by the context information is repeated across the plurality of pieces of context information, determine, based on the predicted context pattern, whether to modify system environment setting information of the image forming apparatus, and modify a setting value of the system environment setting information based on a result of the determination. predict a context pattern by using a plurality of pieces of context information received from the external server (300, 300-1, 300-2, 300-3) based on the extent of variation of data represented by the context information across the plurality of pieces of context information or the extent that data represented by the context information is repeated across the plurality of pieces of context information, determine, based on the predicted context pattern, whether to modify system environment setting information of the image forming apparatus, and modify a setting value of the system environment setting information based on a result of the determination.
A selectively binding complementary (SBC) oligodeoxynucleotide derivative having the structure: 5'-(Affinity tag)-(SBC sequence 2) - (Spacer) - (SBC sequence 1)-(Blocking group or OH)-3' wherein the 3'-blocking group is no blocking (3'-OH), or any alkene diol, or another biotin with a linker, or stabilizing group; SBC sequences 1 and 2, each is 5 - 100 bases long with strands complementary to a selected region of larger targeted dsDNA, such that the targeted DNA preserves a partial double stranded structure after invasion of SBC probe; and 5'-(Affinity tag) is an affinity tag connected to 5'-end of the probe by a linker. the 3'-blocking group is no blocking (3'-OH), or any alkene diol, or another biotin with a linker, or stabilizing group; SBC sequences 1 and 2, each is 5 - 100 bases long with strands complementary to a selected region of larger targeted dsDNA, such that the targeted DNA preserves a partial double stranded structure after invasion of SBC probe; and 5'-(Affinity tag) is an affinity tag connected to 5'-end of the probe by a linker.
A forced-draft pre-mix burner device comprising: a housing that conveys air from an upstream cool air inlet to a downstream warm air outlet ; a heat exchanger that warms the air prior to discharge via the warm air outlet ; a gas burner that burns an air-gas mixture to thereby warm the heat exchanger ; and a fan that mixes the air-gas mixture and forces the air-gas mixture into the gas burner , wherein the fan comprises a plurality of blades , the fan further comprising an end cap having an end wall that faces the plurality of blades , an air-gas mixture inlet through which the air-gas mixture is conveyed to the plurality of blades , and an air-gas mixture outlet through which the air-gas mixture is conveyed to the gas burner , wherein the air-gas mixture inlet is connected to the air-gas mixture outlet via a channel formed in the end wall , wherein the channel forms a depression in the end cap that gradually becomes shallower with respect to the end wall from the air-gas mixture inlet to the air-gas mixture outlet along its length from the air-gas mixture inlet to the air-gas mixture outlet , thus gradually forcing the air-gas mixture axially into an interior and into the compartments formed between the adjacent blades . a housing that conveys air from an upstream cool air inlet to a downstream warm air outlet ; a heat exchanger that warms the air prior to discharge via the warm air outlet ; a gas burner that burns an air-gas mixture to thereby warm the heat exchanger ; and a fan that mixes the air-gas mixture and forces the air-gas mixture into the gas burner , wherein the fan comprises a plurality of blades , the fan further comprising an end cap having an end wall that faces the plurality of blades , an air-gas mixture inlet through which the air-gas mixture is conveyed to the plurality of blades , and an air-gas mixture outlet through which the air-gas mixture is conveyed to the gas burner , wherein the air-gas mixture inlet is connected to the air-gas mixture outlet via a channel formed in the end wall , wherein the channel forms a depression in the end cap that gradually becomes shallower with respect to the end wall from the air-gas mixture inlet to the air-gas mixture outlet along its length from the air-gas mixture inlet to the air-gas mixture outlet , thus gradually forcing the air-gas mixture axially into an interior and into the compartments formed between the adjacent blades .
An apparatus for a controlled combination of at least one reagent with a culture media, the apparatus comprising: a bottle having a narrow upper portion and a lower chamber for receiving a biological sample wherein the lower chamber of the bottle contains a culture media ; a tubular-shaped sealed chamber insert for receiving at least one reagent, the at least one reagent is selected from the group consisting of adsorption resin, lytic reagent, and a combination thereof, wherein the culture media is adapted to grow one of the group selected from aerobic microorganisms, anaerobic microorganisms, mycobacteria, fungi, or yeast and wherein the culture media is in liquid or lyophilized form; and a cap element threaded onto the narrow upper portion of the bottle wherein the cap element secures the tubular-shaped sealed chamber insert in the narrow upper portion of the bottle , wherein the sealed chamber insert is configured to be disrupted by a tapered rod (110 700) having a proximal and distal end and fitted into the cap element when the cap element is twisted onto the bottle , thereby advancing the tapered rod towards the sealed chamber insert , wherein the disruption of the sealed chamber insert , by means of the distal end of the tapered rod piercing the seal chamber insert, allows the contents of the sealed chamber insert to flow into the lower chamber of the bottle , wherein the lower chamber of the bottle comprises one or more sensors for monitoring conditions in the culture media or the headspace gas in the bottle. a bottle having a narrow upper portion and a lower chamber for receiving a biological sample wherein the lower chamber of the bottle contains a culture media ; a tubular-shaped sealed chamber insert for receiving at least one reagent, the at least one reagent is selected from the group consisting of adsorption resin, lytic reagent, and a combination thereof, wherein the culture media is adapted to grow one of the group selected from aerobic microorganisms, anaerobic microorganisms, mycobacteria, fungi, or yeast and wherein the culture media is in liquid or lyophilized form; and a cap element threaded onto the narrow upper portion of the bottle wherein the cap element secures the tubular-shaped sealed chamber insert in the narrow upper portion of the bottle , wherein the sealed chamber insert is configured to be disrupted by a tapered rod (110 700) having a proximal and distal end and fitted into the cap element when the cap element is twisted onto the bottle , thereby advancing the tapered rod towards the sealed chamber insert , wherein the disruption of the sealed chamber insert , by means of the distal end of the tapered rod piercing the seal chamber insert, allows the contents of the sealed chamber insert to flow into the lower chamber of the bottle , wherein the lower chamber of the bottle comprises one or more sensors for monitoring conditions in the culture media or the headspace gas in the bottle.
A method for manufacturing a divided laminated iron core by punching iron core laminae from a sheet steel strip (W) such that each iron core lamina includes a plurality of divided iron core pieces connected with each other in a circumferential direction, and stacking a plurality of the iron core laminae, wherein the iron core laminae include first iron core laminae and second iron core laminae, the method comprising: a first connecting-portion punching step of punching each of connecting portions between divided iron core pieces constituting each first iron core lamina, in the sheet steel strip; a second connecting-portion punching step of punching each of connecting portions between divided iron core pieces constituting each second iron core lamina, in the sheet steel strip; and a stacking step of stacking at least one of the first iron core laminae and at least one of the second iron core laminae and joining together the stacked iron core laminae, characterized in that the connecting portions between the divided iron core pieces of each first iron core lamina are configured to be separated more easily than the connecting portions between the divided iron core pieces of each second iron core lamina. a first connecting-portion punching step of punching each of connecting portions between divided iron core pieces constituting each first iron core lamina, in the sheet steel strip; a second connecting-portion punching step of punching each of connecting portions between divided iron core pieces constituting each second iron core lamina, in the sheet steel strip; and a stacking step of stacking at least one of the first iron core laminae and at least one of the second iron core laminae and joining together the stacked iron core laminae, characterized in that the connecting portions between the divided iron core pieces of each first iron core lamina are configured to be separated more easily than the connecting portions between the divided iron core pieces of each second iron core lamina.
Method for automated emergency stopping of a motor vehicle from a starting speed (v 0 ) to a standstill by means of at least one braking device of the motor vehicle, wherein the braking device is actuated in order to execute a deceleration profile consisting of at least two deceleration phases , wherein, during a deceleration increase phase (Δt z ), the deceleration is increased to a threshold deceleration (a g ) and, during a deceleration decrease phase (Δt a ) lasting until a standstill is reached, the deceleration is reduced to zero, characterised in that , during the deceleration increase and the deceleration decrease, the temporal progressions of the deceleration are at least partially defined as polynomials of the nth order, where n > 0, as a function of the starting speed (v 0 ), in such a way that a stopping time, which represents a necessary length of time for the emergency stopping, does not fall short of a predetermined minimum stopping time (t min ) and that a distance covered during the stopping time does not exceed a predetermined maximum stopping time (s max ).