mhurhangee/patent-ind-claim-en huggingface dataset:
Claw coupling having a first and a second coupling flange and at least one elastic connecting element , the coupling flanges having in each case at least two claws , and the connecting element having cut-outs , the coupling flanges lying opposite one another, and the claws of the coupling flanges engaging into the cut-outs of the connecting element in such a way that a claw of the first coupling flange and a claw of the second coupling flange in each case in an alternating manner come to lie in the cut-outs of the connecting element so as to follow one another in the circumferential direction, the coupling flanges in each case having a circumferential reinforcement which is arranged on the outer circumference of the coupling flanges , is closed in an annular manner in the circumferential direction, and to which the claws can be connected in an integrally joined manner, characterized in that the reinforcements in each case have a curved profile in the axial direction with profile troughs and profile peaks , the profiles being arranged axially in such a way that the profile troughs of the first coupling flange correspond with the profile peaks of the second coupling flange and the profile peaks of the first coupling flange correspond with the profile troughs of the second coupling flange , and there is an axial spacing between the profiles.
A method of facilitating processing in a computing environment, the method comprising steps of: obtaining an instruction to perform a plurality of operations, including ciphering and authentication, the instruction being a single architected hardware machine instruction at a hardware/software interface and including an opcode field having an operation code to indicate a cipher message with authentication operation, and one or more register fields used to designate one or more registers to be used by the instruction; and executing the instruction , the executing including: ciphering one set of data provided using a register of the one or more registers of the instruction to obtain ciphered data; placing the ciphered data in a designated location; authenticating an additional set of data provided by the instruction, the authenticating generating at least a part of a message authentication tag; and storing the at least a part of the message authentication tag in a selected location. obtaining an instruction to perform a plurality of operations, including ciphering and authentication, the instruction being a single architected hardware machine instruction at a hardware/software interface and including an opcode field having an operation code to indicate a cipher message with authentication operation, and one or more register fields used to designate one or more registers to be used by the instruction; and executing the instruction , the executing including: ciphering one set of data provided using a register of the one or more registers of the instruction to obtain ciphered data; placing the ciphered data in a designated location; authenticating an additional set of data provided by the instruction, the authenticating generating at least a part of a message authentication tag; and storing the at least a part of the message authentication tag in a selected location. ciphering one set of data provided using a register of the one or more registers of the instruction to obtain ciphered data; placing the ciphered data in a designated location; authenticating an additional set of data provided by the instruction, the authenticating generating at least a part of a message authentication tag; and storing the at least a part of the message authentication tag in a selected location.
A method of communicating instruction data items from a control apparatus , comprising receiving , by the control apparatus, a request for at least one instruction data item from a device , and responding , by the control apparatus, to the request by sending a response message, characterized by the responding comprising selectively including at least one different instruction data item in the response message that was not requested in the request by the device based at least partly on a determination by the control apparatus whether the requested at least one instruction data item has been sent before to the device, wherein the instruction data items are for controlling operation of the device. receiving , by the control apparatus, a request for at least one instruction data item from a device , and responding , by the control apparatus, to the request by sending a response message, characterized by the responding comprising selectively including at least one different instruction data item in the response message that was not requested in the request by the device based at least partly on a determination by the control apparatus whether the requested at least one instruction data item has been sent before to the device, wherein the instruction data items are for controlling operation of the device.
Fluidic outflow unit , in particular for use in a piece of furniture or in a sanitary object, having - multiple supply lines which can be connected to respective fluidic sources ; - at least one outlet element ; - at least one flow control element for controlling a flow from one of the sources to an outlet element of the outflow unit ; and having - at least one preferably flexible connecting element which fluidically connects the at least one outlet element of the outflow unit to the at least one flow control element of the outflow unit , wherein each supply line is fluidically connected to a respective fluidic source and to at least one respective flow control element , and fluidically connects them to one another, and wherein an outlet element is unambiguously assigned to each flow control element . - multiple supply lines which can be connected to respective fluidic sources ; - at least one outlet element ; - at least one flow control element for controlling a flow from one of the sources to an outlet element of the outflow unit ; and having - at least one preferably flexible connecting element which fluidically connects the at least one outlet element of the outflow unit to the at least one flow control element of the outflow unit , wherein each supply line is fluidically connected to a respective fluidic source and to at least one respective flow control element , and fluidically connects them to one another, and wherein an outlet element is unambiguously assigned to each flow control element .
A screen apparatus, wherein the apparatus comprises: - at least two modules where each module comprises a layer arrangement of at least two layers (41a-d, 51a-e, 61a-d, 81-85, 86a-c, 87a-c), where at least two layers are at least partly made of a polymer, - the layer arrangement comprises a LED layer arrangement of at least one LED layer (41a-b, 51a-e, 81) which comprises a plurality of LEDs (43a-d, 52, 84L, 85L, 86L, 87L), where each single LED layer comprises electrically conductive patterns (60a-b), where the LEDs are electrically coupled with the electrically conductive patterns, and wherein - the layers are stacked on top of each other for each module in order to form the layer arrangement for the at least two modules , - connecting the at least two modules together in order to form the apparatus, and in the apparatus, - the layer arrangement as such is at least partly flexible, characterized in that - the apparatus further comprises a plurality of through-holes across the screen apparatus in order to enhance transparency for the apparatus, and/or for providing spaces for LEDs of an adjacent layer, and/or for providing a route for air and/or water through the screen apparatus. - at least two modules where each module comprises a layer arrangement of at least two layers (41a-d, 51a-e, 61a-d, 81-85, 86a-c, 87a-c), where at least two layers are at least partly made of a polymer, - the layer arrangement comprises a LED layer arrangement of at least one LED layer (41a-b, 51a-e, 81) which comprises a plurality of LEDs (43a-d, 52, 84L, 85L, 86L, 87L), where each single LED layer comprises electrically conductive patterns (60a-b), where the LEDs are electrically coupled with the electrically conductive patterns, and wherein - the layers are stacked on top of each other for each module in order to form the layer arrangement for the at least two modules , - connecting the at least two modules together in order to form the apparatus, and in the apparatus, - the layer arrangement as such is at least partly flexible, characterized in that - the apparatus further comprises a plurality of through-holes across the screen apparatus in order to enhance transparency for the apparatus, and/or for providing spaces for LEDs of an adjacent layer, and/or for providing a route for air and/or water through the screen apparatus.
A method for heating molten glass, the method comprising the steps: - Providing two or more electrodes and bringing each of them at least in part in contact with the molten glass; - Applying a voltage between a first electrode and a second electrode, with the voltage being an AC voltage; and - Controlling the temperature of the molten glass, which comprises one or more of the following steps: i. Controlling the frequency of the applied voltage such that it is between 30 Hz and 15 kHz; and ii. Controlling the specific current load at the first and/or second electrode, such that it is 3.0 A/cm 2 or less at the surface of the electrode which has contact with the molten glass. - Providing two or more electrodes and bringing each of them at least in part in contact with the molten glass; - Applying a voltage between a first electrode and a second electrode, with the voltage being an AC voltage; and - Controlling the temperature of the molten glass, which comprises one or more of the following steps: i. Controlling the frequency of the applied voltage such that it is between 30 Hz and 15 kHz; and ii. Controlling the specific current load at the first and/or second electrode, such that it is 3.0 A/cm 2 or less at the surface of the electrode which has contact with the molten glass. i. Controlling the frequency of the applied voltage such that it is between 30 Hz and 15 kHz; and ii. Controlling the specific current load at the first and/or second electrode, such that it is 3.0 A/cm 2 or less at the surface of the electrode which has contact with the molten glass.
A printer system comprising: a controller configured to generate control signals; a printhead (101, 101-1) comprising: a plurality of ejection dies (105, 105-1, 105-5); a temperature sensor coupled to the plurality of ejection dies (105, 105-1, 105-5) configured to send temperature signals to the controller ; and a heater coupled to the plurality of ejection dies (105, 105-1, 105-5) configured to apply heat to at least one ejection die (105, 105-1, 105-5) in the plurality of ejection dies (105, 105-1, 105-5) based on control signals from the controller ; characterised in that the printer system further comprises and a density measurement component configured to detect density of a printing material deposited on a print media by the printhead (101, 101-1) and to provide data indicative of the detected density to the controller , wherein the controller is configured to provide the control signals to the heater based on the temperature signals and the detected density. a controller configured to generate control signals; a printhead (101, 101-1) comprising: a plurality of ejection dies (105, 105-1, 105-5); a temperature sensor coupled to the plurality of ejection dies (105, 105-1, 105-5) configured to send temperature signals to the controller ; and a heater coupled to the plurality of ejection dies (105, 105-1, 105-5) configured to apply heat to at least one ejection die (105, 105-1, 105-5) in the plurality of ejection dies (105, 105-1, 105-5) based on control signals from the controller ; characterised in that the printer system further comprises and a density measurement component configured to detect density of a printing material deposited on a print media by the printhead (101, 101-1) and to provide data indicative of the detected density to the controller , wherein the controller is configured to provide the control signals to the heater based on the temperature signals and the detected density. a plurality of ejection dies (105, 105-1, 105-5); a temperature sensor coupled to the plurality of ejection dies (105, 105-1, 105-5) configured to send temperature signals to the controller ; and a heater coupled to the plurality of ejection dies (105, 105-1, 105-5) configured to apply heat to at least one ejection die (105, 105-1, 105-5) in the plurality of ejection dies (105, 105-1, 105-5) based on control signals from the controller ; characterised in that the printer system further comprises and a density measurement component configured to detect density of a printing material deposited on a print media by the printhead (101, 101-1) and to provide data indicative of the detected density to the controller , wherein the controller is configured to provide the control signals to the heater based on the temperature signals and the detected density.
Guide vane ring for a turbomachine, comprising: an inner ring , on the radially outer surface of which a receiving channel extends in the circumferential direction (U); a plurality of bearing bodies which are arranged in the receiving channel of the inner ring; a plurality of guide vanes , each of which is inserted at the radially inner end thereof into one of the bearing bodies; and at least one sealing element for sealing at least one gap between the inner ring and at least one of the bearing bodies and/or between two bearing bodies, characterized in that the receiving channel has at least one groove in each case on two mutually facing lateral walls, into which groove a portion of a relevant sealing element is inserted, the at least one sealing element consisting at least partially of sheet metal. an inner ring , on the radially outer surface of which a receiving channel extends in the circumferential direction (U); a plurality of bearing bodies which are arranged in the receiving channel of the inner ring; a plurality of guide vanes , each of which is inserted at the radially inner end thereof into one of the bearing bodies; and at least one sealing element for sealing at least one gap between the inner ring and at least one of the bearing bodies and/or between two bearing bodies, characterized in that the receiving channel has at least one groove in each case on two mutually facing lateral walls, into which groove a portion of a relevant sealing element is inserted, the at least one sealing element consisting at least partially of sheet metal.
A prosthesis for placement at an ostium opening from a main body lumen to a branch body lumen, the prosthesis comprising: a radially expansible support configured to be deployed in at least a portion of the branch body lumen; a plurality of longitudinal members extending from either a proximal or distal end of the support , the longitudinal members configured to be positioned in the main body lumen; and a circumferential member , wherein at least one of the longitudinal members further comprises a first end and a second end , the first end coupled with a portion of the prosthesis distal of the second end , and the second end coupled with the circumferential member , wherein at least one other longitudinal member is not coupled with the circumferential member . a radially expansible support configured to be deployed in at least a portion of the branch body lumen; a plurality of longitudinal members extending from either a proximal or distal end of the support , the longitudinal members configured to be positioned in the main body lumen; and a circumferential member , wherein at least one of the longitudinal members further comprises a first end and a second end , the first end coupled with a portion of the prosthesis distal of the second end , and the second end coupled with the circumferential member , wherein at least one other longitudinal member is not coupled with the circumferential member .
A cutter assembly for an undercutting machine for cutting a rock workface, comprising: a shaft mountable on the machine with one end extending from the machine, and a cutter device arranged in connection to the extended end of the shaft , wherein the cutter device is connected releasably and rotationally rigid to the shaft with a locking arrangement , wherein the locking arrangement comprises a first locking device arranged and adapted to transfer substantially axial loads, and a second locking device arranged and adapted to transfer substantially radial loads, and wherein the second locking device is characterised in that it comprises a tapered locking assembly, including at least one fixing element for fixing a tapered outer surface and a tapered inner surface relative to each other. a shaft mountable on the machine with one end extending from the machine, and a cutter device arranged in connection to the extended end of the shaft , wherein the cutter device is connected releasably and rotationally rigid to the shaft with a locking arrangement , wherein the locking arrangement comprises a first locking device arranged and adapted to transfer substantially axial loads, and a second locking device arranged and adapted to transfer substantially radial loads, and wherein the second locking device is characterised in that it comprises a tapered locking assembly, including at least one fixing element for fixing a tapered outer surface and a tapered inner surface relative to each other.
A mixer comprising a mixing container held in a machine stand , with an outlet opening in the bottom of the mixing container , and a closure cover which can be reciprocated between a closed position in which the closure cover closes the outlet opening and an opened position in which the closure cover does not close the outlet opening , characterised in that the closure cover is connected to the machine stand by way of a four-bar linkage comprising four rotary joints , wherein a first and a second rotary joint of the four-bar linkage are arranged on the closure cover and a third and a fourth rotary joint of the four-bar linkage are arranged on the machine stand , and in that the mixing container is rotatable about a mixing container axis and the four-bar linkage is so arranged that it does not rotate together with the mixing container about the mixing container axis.
A method comprising: causing an ear to be pierced such that a hole in a helix of the ear or a superior concha of the ear is formed, wherein the hole is respectively anatomically covered by a superior helix of the ear or an inferior antihelix crus of the ear such that the hole is respectively anatomically hidden by the superior helix of the ear or the inferior antihelix crus of the ear when the ear is viewed frontally straight-on; characterised in that it further comprises: causing a post of an earring to be inserted into the hole such that the earring is coupled to the ear via the post and the post is respectively anatomically hidden by the superior helix of the ear or the inferior antihelix crus of the ear when the ear is viewed frontally straight-on.
A heat exchanger comprising: a heat exchanger body , an inlet for a fluid to be cooled, and an outlet for the fluid to be cooled; an inlet for a cooling fluid and an outlet for the cooling fluid, the cooling fluid and the fluid to be cooled connected to the heat exchanger, but maintained separate in the heat exchanger, such that the cooling fluid may lower the temperature of the fluid to be cooled; and characterised by an optical ice detector for detecting an undesirable amount of ice particles in the cooling fluid, and a control for receiving information from said ice detector and controlling electric heating elements should an undesirable amount of ice particles be detected. a heat exchanger body , an inlet for a fluid to be cooled, and an outlet for the fluid to be cooled; an inlet for a cooling fluid and an outlet for the cooling fluid, the cooling fluid and the fluid to be cooled connected to the heat exchanger, but maintained separate in the heat exchanger, such that the cooling fluid may lower the temperature of the fluid to be cooled; and characterised by an optical ice detector for detecting an undesirable amount of ice particles in the cooling fluid, and a control for receiving information from said ice detector and controlling electric heating elements should an undesirable amount of ice particles be detected.
A method of transferring liquid using a robotic liquid handler , the method comprising: aspirating a first volume of liquid out of a reagent reservoir using a multi-channel pipettor of the robotic liquid handler, the reagent reservoir having a sloped bottom along a length of the reagent reservoir , the sloped bottom defining a shallow end and a deep end of the reagent reservoir , wherein the shallow end is proximal to a first side-wall of the reagent reservoir, wherein the deep end is proximal to a second side-wall of the reagent reservoir opposite the first side-wall ; and then aspirating a second volume of liquid out of the deep end of the reagent reservoir using a single-channel pipettor or a single channel of a multi-channel pipettor of the robotic liquid handler, wherein aspiration of the second volume out of the deep end results in depletion of liquid in the shallow end of the reagent reservoir ; and aspirating the first volume of liquid out of the reagent reservoir using the multi-channel pipettor of the robotic liquid handler comprises aspirating the first volume using the multi-channel pipettor along the width of the reagent reservoir from the first side-wall to the second side-wall . aspirating a first volume of liquid out of a reagent reservoir using a multi-channel pipettor of the robotic liquid handler, the reagent reservoir having a sloped bottom along a length of the reagent reservoir , the sloped bottom defining a shallow end and a deep end of the reagent reservoir , wherein the shallow end is proximal to a first side-wall of the reagent reservoir, wherein the deep end is proximal to a second side-wall of the reagent reservoir opposite the first side-wall ; and the reagent reservoir having a sloped bottom along a length of the reagent reservoir , the sloped bottom defining a shallow end and a deep end of the reagent reservoir , wherein the shallow end is proximal to a first side-wall of the reagent reservoir, wherein the deep end is proximal to a second side-wall of the reagent reservoir opposite the first side-wall ; then aspirating a second volume of liquid out of the deep end of the reagent reservoir using a single-channel pipettor or a single channel of a multi-channel pipettor of the robotic liquid handler, wherein aspiration of the second volume out of the deep end results in depletion of liquid in the shallow end of the reagent reservoir ; and aspirating the first volume of liquid out of the reagent reservoir using the multi-channel pipettor of the robotic liquid handler comprises aspirating the first volume using the multi-channel pipettor along the width of the reagent reservoir from the first side-wall to the second side-wall .
A method of targeted representational sequencing comprising: (i) homogenizing at least a portion of a tumor, one or more whole or partial lymph nodes, or any combination thereof to provide a homogenized sample; (ii) extracting genomic material from the homogenized sample; (iii) capturing the extracted genomic material onto beads; and (iv) sequencing the captured genomic material; wherein the targeted representational sequencing comprises performing at most 4 amplification cycles prior to sequencing of the captured genomic material.