mhurhangee/patent-ind-claim-en huggingface dataset:
A cutter, comprising a shank at one end and a tool tip at the other end, and flutes extending from the shank to the tool tip, which space machining lands apart from each other in the circumferential direction, wherein at least one of the machining lands is designed as rough-machining land and at least one other of the machining lands as a fine-machining land , and wherein each of the machining lands has a circumferential working area with a cylindrical surface-segment-shaped shell surface, wherein the working area of each rough-machining land is designed as a circumferential file with a plurality of teeth which are worked into the shell surface of the working area, and the working area of each fine-machining land has a plurality of exterior grooves extending with a twist about a tool axis, which are worked into the shell surface of the working area parallel to each other and at an angle relative to the flute leading the at least one fine-machining land , wherein the exterior grooves space apart exterior lands which each have a circumferential cutting edge , characterized in that the tool tip is formed as a ball head section , in which the machining lands have a rounded contour, extending in particular along a ball head radius, wherein the working areas on a first group of the machining lands reach further to the tool tip than on a second group of the machining lands , in which the working area of the respective machining land ends further back, and wherein the cutter is a cutter for electrode graphite.
A system for manufacturing a blade component of a rotor blade of a wind turbine, the system comprising: a blade mold of the rotor blade ; at least one blade skin arranged atop the blade mold ; and, a computer numeric control (CNC) device comprising a printer head and a scanning device , the printer head for printing and depositing a material onto the at least one blade skin to form the blade component , wherein the scanning device comprises a processor and a scanner communicatively coupled to the processor , the scanning device for determining a profile of the at least one blade skin atop the blade mold as the blade component is being printed and deposited layer by layer characterized in that the printer head is automatically adjusted to compensate for changes in the profile in at least one of a horizontal direction or a vertical direction due to at least one of thermal expansion of the blade mold , thickness variations of fibers of the at least one blade skin , or movement of the at least one blade skin atop the blade mold . a blade mold of the rotor blade ; at least one blade skin arranged atop the blade mold ; and, a computer numeric control (CNC) device comprising a printer head and a scanning device , the printer head for printing and depositing a material onto the at least one blade skin to form the blade component , wherein the scanning device comprises a processor and a scanner communicatively coupled to the processor , the scanning device for determining a profile of the at least one blade skin atop the blade mold as the blade component is being printed and deposited layer by layer characterized in that the printer head is automatically adjusted to compensate for changes in the profile in at least one of a horizontal direction or a vertical direction due to at least one of thermal expansion of the blade mold , thickness variations of fibers of the at least one blade skin , or movement of the at least one blade skin atop the blade mold .
A method of identifying the presence of a viable and inducible prophage from a bacterial species that is not known to contain said viable and inducible prophage, said method comprising: - providing a pair of oligonucleotides to be used as a forward primer and a reverse primer to amplify a segment of a bacteriophage terminase large unit gene; - performing two quantitative polymerase chain reaction (qPCR) experiments with said forward and reverse primers, wherein one experiment is performed on a culture of said bacterial species that is induced to allow the prophage to undergo the lytic cycle, and the other experiment is performed on a culture of said bacterial species that is not induced; - comparing the cycle threshold (Ct) values of the two qPCR experiments, wherein a difference of Ct value (ΔCt) between the induced culture and the non-induced culture is greater than two is indicative of the presence of viable and inducible prophage from said bacterial species, and wherein a ΔCt value between the induced culture and the non-induced culture is less than two is indicative of the absence of viable and inducible prophage from said bacterial species. - providing a pair of oligonucleotides to be used as a forward primer and a reverse primer to amplify a segment of a bacteriophage terminase large unit gene; - performing two quantitative polymerase chain reaction (qPCR) experiments with said forward and reverse primers, wherein one experiment is performed on a culture of said bacterial species that is induced to allow the prophage to undergo the lytic cycle, and the other experiment is performed on a culture of said bacterial species that is not induced; - comparing the cycle threshold (Ct) values of the two qPCR experiments, wherein a difference of Ct value (ΔCt) between the induced culture and the non-induced culture is greater than two is indicative of the presence of viable and inducible prophage from said bacterial species, and wherein a ΔCt value between the induced culture and the non-induced culture is less than two is indicative of the absence of viable and inducible prophage from said bacterial species.
Thermal shielding device (20'', 20'''; 20'''') for a probe card with: a first and second thermally conductive plate (P1, P2); a structured thermally-insulating intermediate layer (Z) between the first and second thermally conductive plate (P1, P2), providing a channel system (K) for a temperature-conditioning fluid (TF) which is delimited on a first side (S1) by means of the first plate (P1) and on a second side (S2) by means of the second plate (P2); a first inlet (Fl; FI') into the channel system (K) for the temperature-conditioning fluid (TF) and a first outlet (FO; FO') from the channel system (K) for the temperature-conditioning fluid (TF); and a through-opening (0; 0'; 01) for passing a needle head through which is attached to the probe card ; wherein the intermediate layer (Z) provides a channel (K') between the first and second plates (P1, P2), wherein a second inlet (FI2) into the channel (K') is provided for the temperature-conditioning fluid (TF), wherein a second outlet (F02) is provided from the channel (K') for the temperature-conditioning fluid (TF) and wherein the second outlet (F02) is provided in the region of the through-opening such that temperature-conditioning fluid (TF) exiting from the channel (K') can be directed on to the needle head . a first and second thermally conductive plate (P1, P2); a structured thermally-insulating intermediate layer (Z) between the first and second thermally conductive plate (P1, P2), providing a channel system (K) for a temperature-conditioning fluid (TF) which is delimited on a first side (S1) by means of the first plate (P1) and on a second side (S2) by means of the second plate (P2); a first inlet (Fl; FI') into the channel system (K) for the temperature-conditioning fluid (TF) and a first outlet (FO; FO') from the channel system (K) for the temperature-conditioning fluid (TF); and a through-opening (0; 0'; 01) for passing a needle head through which is attached to the probe card ; wherein the intermediate layer (Z) provides a channel (K') between the first and second plates (P1, P2), wherein a second inlet (FI2) into the channel (K') is provided for the temperature-conditioning fluid (TF), wherein a second outlet (F02) is provided from the channel (K') for the temperature-conditioning fluid (TF) and wherein the second outlet (F02) is provided in the region of the through-opening such that temperature-conditioning fluid (TF) exiting from the channel (K') can be directed on to the needle head .
Electric vehicle , in particular construction machine, comprising a battery system which has a high-energy battery having at least one high-energy cell and a high-performance battery having at least one high-performance cell, a first load string , which has at least one actuating motor for driving at least one actuating element of the electric vehicle , a second load string , which has at least one traction motor for driving at least one traction element of the electric vehicle , and a switching unit which can be actuated in such a way that the high-performance battery is electrically connected to the second load string , and that the high-performance battery is electrically connected to the first load string , and that the high-energy battery is electrically connected to the first load string . a battery system which has a high-energy battery having at least one high-energy cell and a high-performance battery having at least one high-performance cell, a first load string , which has at least one actuating motor for driving at least one actuating element of the electric vehicle , a second load string , which has at least one traction motor for driving at least one traction element of the electric vehicle , and a switching unit which can be actuated in such a way that the high-performance battery is electrically connected to the second load string , and that the high-performance battery is electrically connected to the first load string , and that the high-energy battery is electrically connected to the first load string .
A bioprocessing apparatus, comprising: a flexible bioprocessing bag ; and a base plate positioned at a bottom of the flexible bioprocessing bag and being shaped so as to be received in a corresponding recess in a bottom of a bioreactor vessel , the base plate including: a locating mechanism adjacent to a rear edge of the base plate , for cooperating with a corresponding locating feature on the bottom of the bioreactor vessel adjacent to the recess to locate the base plate in the recess , characterised in that the locating mechanism comprises one of a slot and a tongue and the corresponding locating feature comprises the other of a slot and a tongue; and a locking mechanism extending downwardly from an underside of the base plate opposite the locating mechanism , for cooperating with a corresponding locking device of the bioreactor vessel for retaining the base plate in the recess . a flexible bioprocessing bag ; and a base plate positioned at a bottom of the flexible bioprocessing bag and being shaped so as to be received in a corresponding recess in a bottom of a bioreactor vessel , the base plate including: a locating mechanism adjacent to a rear edge of the base plate , for cooperating with a corresponding locating feature on the bottom of the bioreactor vessel adjacent to the recess to locate the base plate in the recess , characterised in that the locating mechanism comprises one of a slot and a tongue and the corresponding locating feature comprises the other of a slot and a tongue; and a locking mechanism extending downwardly from an underside of the base plate opposite the locating mechanism , for cooperating with a corresponding locking device of the bioreactor vessel for retaining the base plate in the recess . a locating mechanism adjacent to a rear edge of the base plate , for cooperating with a corresponding locating feature on the bottom of the bioreactor vessel adjacent to the recess to locate the base plate in the recess , characterised in that the locating mechanism comprises one of a slot and a tongue and the corresponding locating feature comprises the other of a slot and a tongue; and a locking mechanism extending downwardly from an underside of the base plate opposite the locating mechanism , for cooperating with a corresponding locking device of the bioreactor vessel for retaining the base plate in the recess .
An endoluminal prosthesis deployment system, comprising: a prosthesis including a support structure coupled to a graft body, the prosthesis having a first end opening, a second end opening, a lumen extending longitudinally between the first and second end openings, an anterior fenestration disposed in a sidewall of the graft body of the prosthesis below the first end opening, at least one lateral fenestration disposed in the sidewall below the anterior fenestration and circumferentially spaced from the anterior fenestration , the at least one lateral fenestration configured to receive a secondary graft, and an opening disposed in the sidewall below the at least one lateral fenestration ; and a guide disposed such that it extends from below the second end opening, extends through the lumen to the at least one lateral fenestration , exits the at least one lateral fenestration , traverses along an exterior surface of the prosthesis, enters the anterior fenestration , longitudinally traverses along an interior surface of the prosthesis, and exits the opening to extend away from the opening toward the second end opening of the prosthesis. a prosthesis including a support structure coupled to a graft body, the prosthesis having a first end opening, a second end opening, a lumen extending longitudinally between the first and second end openings, an anterior fenestration disposed in a sidewall of the graft body of the prosthesis below the first end opening, at least one lateral fenestration disposed in the sidewall below the anterior fenestration and circumferentially spaced from the anterior fenestration , the at least one lateral fenestration configured to receive a secondary graft, and an opening disposed in the sidewall below the at least one lateral fenestration ; and a guide disposed such that it extends from below the second end opening, extends through the lumen to the at least one lateral fenestration , exits the at least one lateral fenestration , traverses along an exterior surface of the prosthesis, enters the anterior fenestration , longitudinally traverses along an interior surface of the prosthesis, and exits the opening to extend away from the opening toward the second end opening of the prosthesis.
Method for transmitting, via an asynchronous link, a frame of information and an additional item of data from a security processor to an external device, the frame of information being made up of a particular pattern of bits signalling the beginning of the frame and another particular pattern of bits signalling the end of the frame and the additional item of data being an item of data sent to the external device in addition to those contained in the frame of information, wherein: a) in response to receiving a request, the security processor calculates the value of the additional item of data, this additional item of data being a response to the request chosen from at least two possible responses to the request; b) the security processor calculates a delay according to the value of this additional item of data calculated in step a); and c) the security processor delays the beginning of transmission of the frame of information, from the security processor to the external device, by a duration that is equal to the delay calculated in step b) for transmitting the additional item of data, then transmits the frame of information to the external device. a) in response to receiving a request, the security processor calculates the value of the additional item of data, this additional item of data being a response to the request chosen from at least two possible responses to the request; b) the security processor calculates a delay according to the value of this additional item of data calculated in step a); and c) the security processor delays the beginning of transmission of the frame of information, from the security processor to the external device, by a duration that is equal to the delay calculated in step b) for transmitting the additional item of data, then transmits the frame of information to the external device.
A grip-type electrocardiographic measuring device comprising: a main body portion that has a substantially spheroid shape; a plate-like flange portion that is mounted on a side surface of the main body portion; a first electrocardiographic electrode that is disposed on the main body portion and makes contact with one hand when the main body portion is gripped by the one hand; and a second electrocardiographic electrode that is disposed on a surface of the flange portion and makes contact with a finger of the other hand when the flange portion is pinched by the other hand, wherein the flange portion has flexibility, characterised in that the flange portion is bendable from a mounting portion on the main body portion. a main body portion that has a substantially spheroid shape; a plate-like flange portion that is mounted on a side surface of the main body portion; a first electrocardiographic electrode that is disposed on the main body portion and makes contact with one hand when the main body portion is gripped by the one hand; and a second electrocardiographic electrode that is disposed on a surface of the flange portion and makes contact with a finger of the other hand when the flange portion is pinched by the other hand, wherein the flange portion has flexibility, characterised in that the flange portion is bendable from a mounting portion on the main body portion.
Method for producing at least one green compact using a pressing tool , wherein the pressing tool at least comprises a die that extends along an axial direction between a first end face and a second end face and forms an inner peripheral surface with an opening between the end faces , wherein the inner peripheral surface forms a receptacle for the green compact , as well as at least one first punch that can be moved via one of the end faces of the die into the receptacle along the axial direction , and at least one second punch that can be moved through a channel in the die and toward the receptacle along a radial direction , the method at least comprising the following steps: a) providing the die and the second punch , the second punch being arranged before or during step b) so as to be outwardly offset in the radial direction with respect to the inner peripheral surface ; b) filling a powdery material into the receptacle ; c) moving at least the first punch and the second punch and compressing the material in the receptacle , the second punch being moved in the radial direction toward the receptacle only so far that it is arranged at least with a region of the inner peripheral surface , which is arranged between one end face , via which the first punch is moved into the receptacle , and the opening , so as to be flush or so as to protrude into the receptacle by no more than 0.1 mm at least relative to this region of the inner peripheral surface in the radial direction ; wherein the second punch is offset in step a) or during step b) so far in the radial direction relative to the inner peripheral surface that the material filled in step b) is also disposed in the channel ; wherein the material arranged in the channel is displaced via the opening into the receptacle as a result of the movement of the second punch in step c); wherein a subregion of a wall region of the green compact , extending along the axial direction from a first end to a second end is compacted in step c) by the second punch , wherein the subregion being arranged so as to be spaced apart at least from the first end ; wherein the wall region between the first end and the subregion is compacted by the first punch . a) providing the die and the second punch , the second punch being arranged before or during step b) so as to be outwardly offset in the radial direction with respect to the inner peripheral surface ; b) filling a powdery material into the receptacle ; c) moving at least the first punch and the second punch and compressing the material in the receptacle , the second punch being moved in the radial direction toward the receptacle only so far that it is arranged at least with a region of the inner peripheral surface , which is arranged between one end face , via which the first punch is moved into the receptacle , and the opening , so as to be flush or so as to protrude into the receptacle by no more than 0.1 mm at least relative to this region of the inner peripheral surface in the radial direction ;
A radiation detector comprising a pixel, the pixel having: a first diode arranged to collect radiation-generated carriers from a first collection region; a second diode arranged to collect radiation-generated carriers from a second collection region, wherein the first diode has a higher node capacitance than the second diode ; switching components operable to permit independent readout of signals from the first diode and the second diode ; first bias wiring for applying a first bias voltage (VRSTA) to the first diode ; second bias wiring for applying a second bias voltage (VRSTB) to the second diode , characterised in that the first collection region and the second collection region at least partially overlap or entirely overlap, and the first and second bias wiring are arranged to apply the first bias voltage (VRSTA) to reset the first diode and to apply the second bias voltage (VRSTB) to reset the second diode , wherein collection of radiation-generated carriers by the first diode begins after resetting the first diode and collection of radiation-generated carriers by the second diode begins after resetting the second diode , wherein the first and second bias voltages (VRSTA, VRSTB) are different, with the second bias voltage (VRSTB) greater than the first bias voltage (VRSTA). a first diode arranged to collect radiation-generated carriers from a first collection region; a second diode arranged to collect radiation-generated carriers from a second collection region, wherein the first diode has a higher node capacitance than the second diode ; switching components operable to permit independent readout of signals from the first diode and the second diode ; first bias wiring for applying a first bias voltage (VRSTA) to the first diode ; second bias wiring for applying a second bias voltage (VRSTB) to the second diode , characterised in that the first collection region and the second collection region at least partially overlap or entirely overlap, and the first and second bias wiring are arranged to apply the first bias voltage (VRSTA) to reset the first diode and to apply the second bias voltage (VRSTB) to reset the second diode , wherein collection of radiation-generated carriers by the first diode begins after resetting the first diode and collection of radiation-generated carriers by the second diode begins after resetting the second diode , wherein the first and second bias voltages (VRSTA, VRSTB) are different, with the second bias voltage (VRSTB) greater than the first bias voltage (VRSTA).
A method for transmitting a physical uplink control channel, PUCCH, signal, the method performed by a wireless device and comprising: transmitting the PUCCH signal in a first subframe; and transmitting the PUCCH signal in a second subframe, wherein the PUCCH signal is repeated over a plurality of subframes including the first subframe and the second subframe, wherein a frequency location of the PUCCH signal is maintained in two slots of one subframe and is hopped in a unit of n subframes. transmitting the PUCCH signal in a first subframe; and transmitting the PUCCH signal in a second subframe, wherein the PUCCH signal is repeated over a plurality of subframes including the first subframe and the second subframe, wherein a frequency location of the PUCCH signal is maintained in two slots of one subframe and is hopped in a unit of n subframes.