mhurhangee/ep-ind-claims huggingface dataset:
Wrench for capturing and fixing a prosthetic component in the form of a screw in a dental implant, the wrench comprising at its lower end: a tip with a circular end, a plurality of protrusions, and a plurality of recesses; wherein the plurality of protrusions and the plurality of recesses are alternately arranged, such that side walls are formed substantially perpendicular to the longitudinal axis of the wrench; and wherein each of the protrusions is subsequently divided, from the tip of the lower end, into a first region (12.1), a second region (12.2), and third region (12.3), characterized in that: - the first region (12.1) is provided with a corner break, so as to facilitate fitting the wrench into the component; - the second region (12.2) is parallel to the wrench longitudinal axis; - the third region (12.3) is conical in shape; and - the recesses extend into the region next to the center of the circular end. a tip with a circular end, a plurality of protrusions, and a plurality of recesses; wherein the plurality of protrusions and the plurality of recesses are alternately arranged, such that side walls are formed substantially perpendicular to the longitudinal axis of the wrench; and wherein each of the protrusions is subsequently divided, from the tip of the lower end, into a first region (12.1), a second region (12.2), and third region (12.3), characterized in that: - the first region (12.1) is provided with a corner break, so as to facilitate fitting the wrench into the component; - the second region (12.2) is parallel to the wrench longitudinal axis; - the third region (12.3) is conical in shape; and - the recesses extend into the region next to the center of the circular end. - the first region (12.1) is provided with a corner break, so as to facilitate fitting the wrench into the component; - the second region (12.2) is parallel to the wrench longitudinal axis; - the third region (12.3) is conical in shape; and - the recesses extend into the region next to the center of the circular end.
A method for controlling motion of a legged robot executed by an electronic device, the legged robot comprising a plurality of foot ends, and the method comprising: determining, according to state data of the legged robot at a start moment in a preset period, a candidate landing point of each foot end in the preset period; determining, according to the state data at the start moment and the candidate landing point of each foot end, a first correlation between a center-of-mass position change parameter, a candidate landing point, and a foot end contact force; determining, under constraint of a constraint condition set, a target center-of-mass position change parameter, a target step order, and a target landing point that satisfy the first correlation, the constraint condition set comprising a constraint condition used for constraining a step order; and controlling, according to the target center-of-mass position change parameter, the target step order, and the target landing point, motion of the legged robot in the preset period. determining, according to state data of the legged robot at a start moment in a preset period, a candidate landing point of each foot end in the preset period; determining, according to the state data at the start moment and the candidate landing point of each foot end, a first correlation between a center-of-mass position change parameter, a candidate landing point, and a foot end contact force; determining, under constraint of a constraint condition set, a target center-of-mass position change parameter, a target step order, and a target landing point that satisfy the first correlation, the constraint condition set comprising a constraint condition used for constraining a step order; and controlling, according to the target center-of-mass position change parameter, the target step order, and the target landing point, motion of the legged robot in the preset period.
A hand washing system, comprising: (i) an integrated reagent and water dispensing unit comprising: a) a personal identification unit comprising a tag reader or a biometric identification module; b) a reagent dispenser comprising multiple slots for holding multiple reagent cartridges; c) at least one reagent cartridge comprising a cleaning reagent and a sensor for identifying the specific cleaning reagent; d) a connection to a water source; e) one or more sensors (106, 108) for monitoring the handwashing sequence; f) a controller comprising a processor and memory for managing the unit's operations and for storing handwashing data parameters; and (ii) a server connected to said reagent and water dispensing unit for receiving and analyzing handwashing data parameters, wherein when an individual approaches the integrated reagent and water dispensing unit, the personal identification unit identifies the individual, the controller send's the individual's information to the server and receives a hand-washing sequence assigned to the individual according to his profile, the reagent and water dispensing unit dispenses one or more cleaning reagents and water according to said hand-washing sequence assigned to the individual, the one or more sensors (106, 108) confirm that the individual has performed the assigned hand-washing sequence correctly and the processor sends the server handwashing data parameters. (i) an integrated reagent and water dispensing unit comprising: a) a personal identification unit comprising a tag reader or a biometric identification module; b) a reagent dispenser comprising multiple slots for holding multiple reagent cartridges; c) at least one reagent cartridge comprising a cleaning reagent and a sensor for identifying the specific cleaning reagent; d) a connection to a water source; e) one or more sensors (106, 108) for monitoring the handwashing sequence; f) a controller comprising a processor and memory for managing the unit's operations and for storing handwashing data parameters; and a) a personal identification unit comprising a tag reader or a biometric identification module; b) a reagent dispenser comprising multiple slots for holding multiple reagent cartridges; c) at least one reagent cartridge comprising a cleaning reagent and a sensor for identifying the specific cleaning reagent; d) a connection to a water source; e) one or more sensors (106, 108) for monitoring the handwashing sequence; f) a controller comprising a processor and memory for managing the unit's operations and for storing handwashing data parameters; and (ii) a server connected to said reagent and water dispensing unit for receiving and analyzing handwashing data parameters,
A cartridge for an aerosol-generating system, wherein the cartridge comprises: a liquid storage portion for holding a liquid aerosol-forming substrate, wherein the liquid storage portion includes one or more flexible walls and is configured to change at least one of the shape and the size of the liquid storage portion upon a change of the volume of the liquid aerosol-forming substrate held in the liquid storage portion; a sensor for measuring data of a physical property, wherein the measured data relates to at least one of a corresponding shape and a corresponding size of the liquid storage portion so that the volume of the liquid aerosol-forming substrate held in the liquid storage portion is determinable from the measured data; and a vaporiser. a liquid storage portion for holding a liquid aerosol-forming substrate, wherein the liquid storage portion includes one or more flexible walls and is configured to change at least one of the shape and the size of the liquid storage portion upon a change of the volume of the liquid aerosol-forming substrate held in the liquid storage portion; a sensor for measuring data of a physical property, wherein the measured data relates to at least one of a corresponding shape and a corresponding size of the liquid storage portion so that the volume of the liquid aerosol-forming substrate held in the liquid storage portion is determinable from the measured data; and a vaporiser.
An apparatus for selectively destroying dividing cells in a target area of living tissue, the dividing cells having polarizable or polar or charged intracellular members, the apparatus comprising: a first insulated electrode (230; 1210) having a first conductor; a second insulated electrode (230; 1200) having a second conductor; an electric field source connected to the first and second insulated electrodes (230; 1210, 1200) for applying an alternating electric potential difference across the first and second conductors having a frequency of between about 50 kHz to about 500 kHz and an electric field intensity of between about 0.1 V/cm to about 10.0 V/cm to create a condition in the dividing cells that encourages the destruction thereof; an intervening member formed of a filler material disposed between one of the first and second insulated electrodes (230; 1210, 1200) and a skin surface when disposed on living tissue, the filler material having a high conductance; and a third conductor (1100; 1400) disposed within the intervening member, such that the filler material of the intervening member completely surrounds the third conductor (1100; 1400). a first insulated electrode (230; 1210) having a first conductor; a second insulated electrode (230; 1200) having a second conductor; an electric field source connected to the first and second insulated electrodes (230; 1210, 1200) for applying an alternating electric potential difference across the first and second conductors having a frequency of between about 50 kHz to about 500 kHz and an electric field intensity of between about 0.1 V/cm to about 10.0 V/cm to create a condition in the dividing cells that encourages the destruction thereof; an intervening member formed of a filler material disposed between one of the first and second insulated electrodes (230; 1210, 1200) and a skin surface when disposed on living tissue, the filler material having a high conductance; and a third conductor (1100; 1400) disposed within the intervening member, such that the filler material of the intervening member completely surrounds the third conductor (1100; 1400).
A gas turbine engine comprising: a fan bypass duct; a spool; and a pump system for a thermal management system, said pump system comprising: an air intake for receiving air from a supply of air; an impeller having an intake for receiving said air and an outlet for discharging said air; a discharge manifold having two heat exchangers incorporated therein which forms part of said thermal management system; wherein said discharge manifold has an outlet for discharging air into the bypass duct of the engine, and wherein each of said heat exchangers comprises an air oil cooler; characterised in that the pump system further comprises a towershaft for driving said impeller, wherein said towershaft is driven by the spool of the engine; said spool being a mid-spool configured to couple a mid-pressure compressor to a mid-pressure turbine section. a fan bypass duct; a spool; and a pump system for a thermal management system, said pump system comprising: an air intake for receiving air from a supply of air; an impeller having an intake for receiving said air and an outlet for discharging said air; a discharge manifold having two heat exchangers incorporated therein which forms part of said thermal management system; wherein said discharge manifold has an outlet for discharging air into the bypass duct of the engine, and wherein each of said heat exchangers comprises an air oil cooler; characterised in that the pump system further comprises a towershaft for driving said impeller, wherein said towershaft is driven by the spool of the engine; said spool being a mid-spool configured to couple a mid-pressure compressor to a mid-pressure turbine section. an air intake for receiving air from a supply of air; an impeller having an intake for receiving said air and an outlet for discharging said air; a discharge manifold having two heat exchangers incorporated therein which forms part of said thermal management system; wherein said discharge manifold has an outlet for discharging air into the bypass duct of the engine, and wherein each of said heat exchangers comprises an air oil cooler; characterised in that the pump system further comprises a towershaft for driving said impeller, wherein said towershaft is driven by the spool of the engine; said spool being a mid-spool configured to couple a mid-pressure compressor to a mid-pressure turbine section.
A process for producing 2,3,3,3-tetrafluoropropene and 1,1-difluoroethylene from chlorodifluoromethane, chloromethane and tetrafluoroethylene, which comprises (a) a step of supplying the chlorodifluoromethane, the chloromethane and the tetrafluoroethylene to a reactor, as preliminarily mixed or separately, (b) a step of supplying a heat medium to the reactor, and (c) a step of bringing the heat medium in contact with the chlorodifluoromethane, the chloromethane and the tetrafluoroethylene in the reactor to form the 2,3,3,3-tetrafluoropropene and the 1,1-difluoroethylene, wherein the heat medium is at least one member selected from steam, nitrogen and carbon dioxide, and wherein the temperature in the reactor in the step (c) is adjusted to be from 400 to 1,200°C. (a) a step of supplying the chlorodifluoromethane, the chloromethane and the tetrafluoroethylene to a reactor, as preliminarily mixed or separately, (b) a step of supplying a heat medium to the reactor, and (c) a step of bringing the heat medium in contact with the chlorodifluoromethane, the chloromethane and the tetrafluoroethylene in the reactor to form the 2,3,3,3-tetrafluoropropene and the 1,1-difluoroethylene,
A method of receiving resource allocation information by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, second resource allocation information scheduling a second bandwidth part, BWP, through a first BWP, wherein, at receiving the second resource allocation information, the first BWP is an active BWP and the second BWP is a BWP different from the active BWP; and receiving, from the base station, a data channel scheduled by the second resource allocation information through the second BWP, characterised in that the second resource allocation information bit size is set to be the same bit size as the bit size of the first resource allocation information used for scheduling the first BWP. receiving, from a base station, second resource allocation information scheduling a second bandwidth part, BWP, through a first BWP, wherein, at receiving the second resource allocation information, the first BWP is an active BWP and the second BWP is a BWP different from the active BWP; and receiving, from the base station, a data channel scheduled by the second resource allocation information through the second BWP, characterised in that the second resource allocation information bit size is set to be the same bit size as the bit size of the first resource allocation information used for scheduling the first BWP.
A gas pressure spring comprising an expanding wax as a compensating medium for reducing a temperature dependency of a spring force of the gas pressure spring in an operating temperature range of the gas pressure spring spanning a minimum temperature of -40 °C to +10 °C up to a maximum temperature of +50 °C to +100° C characterised in that a. the expanding wax comprises at least one liquid phase and at least one solid phase in the entire operating temperature range; b. wherein the expanding wax is composed of a number of alkanes and a number of primary alcohols having chain lengths which differ from each other, c. wherein the primary alcohols constitute a percentage of 10 % to 30 % of the substance amount of the expanding wax; and d. wherein the primary alcohols contained in the expanding wax i. comprise a number of primary alcohols having a lower melting temperature than all alkanes contained in the expanding wax, and/or ii. comprise a number of primary alcohols having a higher melting temperature than all alkanes contained in the expanding wax. a. the expanding wax comprises at least one liquid phase and at least one solid phase in the entire operating temperature range; b. wherein the expanding wax is composed of a number of alkanes and a number of primary alcohols having chain lengths which differ from each other, c. wherein the primary alcohols constitute a percentage of 10 % to 30 % of the substance amount of the expanding wax; and d. wherein the primary alcohols contained in the expanding wax i. comprise a number of primary alcohols having a lower melting temperature than all alkanes contained in the expanding wax, and/or ii. comprise a number of primary alcohols having a higher melting temperature than all alkanes contained in the expanding wax. i. comprise a number of primary alcohols having a lower melting temperature than all alkanes contained in the expanding wax, and/or ii. comprise a number of primary alcohols having a higher melting temperature than all alkanes contained in the expanding wax.
Method for producing an aluminium piston for an internal combustion engine, which is subjected to a welding treatment at least in the area of a cavity edge and/or a cavity base for introducing at least one additive element into a base material of the aluminium piston and for generating intermetallic phases of a welding treatment, wherein by means of the welding method at least one of the following additive elements is introduced in the given concentration, 1-7 wt.-% Ni, 1-15 wt.-% Cu und 0.5-5 wt.-% Fe, characterised in that by means of the welding method intermetallic phases are generated with a maximum longitudinal extension of L < 50 μm.
Delivery for a sheet-fed printing press including a sheet stack for depositing sheets, a transport system for feeding sheets (1000, 1001, 1002, 1004, 1005) in a direction of sheet transport and in a plane of transport and including a transporting means for moving sheets (1002, 1004, 1005) onwards, said transporting means disposed downstream of said sheet stack in the direction of machine travel, wherein a blower device for guiding the sheets is disposed downstream of the sheet stack in the direction of machine travel and at a level above the sheet stack and below the plane of transport, characterized in that the blower device provides blown air (b) that is essentially directed against the direction of sheet transport and in that the blown air from the blower device is blowable from below against a sheet that is moved onward to the transport means.
A milking system for milking animals comprising: - a common milk line connected to a milk storage tank; - at least two milking stations (1a, 1b, 1c) connected to the common milk line, each milking station being adapted to automatically identify an animal, to automatically extract milk from the animal, and to automatically transfer the milk in the common milk line from the milking station to the milk storage tank; and - a computer for storing milk quality information and animal identity data, - a milk constituent analyzing unit arranged to analyze milk from the common milk line with respect to a specific constituent, wherein - the milking stations (1a-c), the computer, and the milk constituent analyzing unit are communicatively connected, thereby allowing the result of the analysis of the milk with respect to the specific constituent to be associated with the identity of the animal or the identities of the animals, from which the milk was extracted, characterized in that - the milking system comprises means (16; 9; 8) for controlling the transfer of milk in the common milk line; and - the means for controlling is arranged to allow only one of the milking stations at a time to transfer milk in the common milk line. - a common milk line connected to a milk storage tank; - at least two milking stations (1a, 1b, 1c) connected to the common milk line, each milking station being adapted to automatically identify an animal, to automatically extract milk from the animal, and to automatically transfer the milk in the common milk line from the milking station to the milk storage tank; and - a computer for storing milk quality information and animal identity data, - a milk constituent analyzing unit arranged to analyze milk from the common milk line with respect to a specific constituent, wherein - the milking stations (1a-c), the computer, and the milk constituent analyzing unit are communicatively connected, thereby allowing the result of the analysis of the milk with respect to the specific constituent to be associated with the identity of the animal or the identities of the animals, from which the milk was extracted, characterized in that - the milking system comprises means (16; 9; 8) for controlling the transfer of milk in the common milk line; and - the means for controlling is arranged to allow only one of the milking stations at a time to transfer milk in the common milk line.
A method of preparing a haemostatic composition, the method comprising the steps of: a) providing a dry thrombin composition in a first syringe; b) providing a paste comprising a biocompatible polymer selected from the group consisting of gelatine, collagen, chitin, chitosan, alginate, cellulose, oxidised cellulose, polyglycolic acid and polyacetic acid in a second syringe; c) connecting the first syringe and the second syringe using suitable connecting means; and d) mixing the contents of the syringes. a) providing a dry thrombin composition in a first syringe; b) providing a paste comprising a biocompatible polymer selected from the group consisting of gelatine, collagen, chitin, chitosan, alginate, cellulose, oxidised cellulose, polyglycolic acid and polyacetic acid in a second syringe; c) connecting the first syringe and the second syringe using suitable connecting means; and d) mixing the contents of the syringes.
A process for separating HF from a mixture comprising HFC-1243zf, HF, and at least one of HFC-254fb or HFC-254eb, said process comprising: a. adding an entrainer to the mixture comprising HFC-1243zf, HF, and at least one of HFC-254fb or HFC-254eb thus forming a second mixture; b. distilling said second mixture in a first distillation step to form a first distillate composition comprising HF and entrainer and a first bottoms composition comprising HFC-1243zf and at least one of HFC-254fb or HFC-254eb; c. condensing said first distillate composition to form two liquid phases, being (i) an entrainer-rich phase and (ii) an HF-rich phase; and d. recycling the entrainer-rich phase back to the first distillation step. a. adding an entrainer to the mixture comprising HFC-1243zf, HF, and at least one of HFC-254fb or HFC-254eb thus forming a second mixture; b. distilling said second mixture in a first distillation step to form a first distillate composition comprising HF and entrainer and a first bottoms composition comprising HFC-1243zf and at least one of HFC-254fb or HFC-254eb; c. condensing said first distillate composition to form two liquid phases, being (i) an entrainer-rich phase and (ii) an HF-rich phase; and d. recycling the entrainer-rich phase back to the first distillation step.