mhurhangee/ep-ind-claims huggingface dataset:
A medical device for administering a medicament comprising: an electrode; a vibrational element; a reservoir for storing the medicament; a current driver electrically coupled to the electrode; and an oscillation driver electrically coupled to the vibrational element; and characterized in that the electrode and the vibrational element form at least one channel in fluid communication with the reservoir. an electrode; a vibrational element; a reservoir for storing the medicament; a current driver electrically coupled to the electrode; and an oscillation driver electrically coupled to the vibrational element; and characterized in that the electrode and the vibrational element form at least one channel in fluid communication with the reservoir.
A method of transmitting and receiving a signal by a user equipment, UE, operating in a wireless communication system, the method comprising: determining an interlace including 10 Resource Blocks, RBs, for transmitting a Physical Uplink Control Channel, PUCCH, wherein an interlace is a set of non consecutive RBs in the frequency domain; wherein the PUCCH includes a PUCCH sequence of which a Cyclic Shift, CS, value depends on a RB index for each of RBs in the interlace, wherein the PUCCH sequence is repeatedly mapped to each of the 10 RBs, and a length of the PUCCH sequence is 12, and wherein the CS value is calculated by applying a modulo L operation to (i) a specific value obtained by multiplying an RB index of each RB by 5, wherein L is (ii) the length of the PUCCH sequence; and repeatedly transmitting the PUCCH in each of the RBs included in the interlace. determining an interlace including 10 Resource Blocks, RBs, for transmitting a Physical Uplink Control Channel, PUCCH, wherein an interlace is a set of non consecutive RBs in the frequency domain; wherein the PUCCH includes a PUCCH sequence of which a Cyclic Shift, CS, value depends on a RB index for each of RBs in the interlace, wherein the PUCCH sequence is repeatedly mapped to each of the 10 RBs, and a length of the PUCCH sequence is 12, and wherein the CS value is calculated by applying a modulo L operation to (i) a specific value obtained by multiplying an RB index of each RB by 5, wherein L is (ii) the length of the PUCCH sequence; and repeatedly transmitting the PUCCH in each of the RBs included in the interlace.
A switching mechanism for an outdoor robotic tool, comprising: a switching assembly comprising a carry handle, and further comprising and a stop button having activated and deactivated states and being configured to be pressed by a user, the stop button being operatively connected to the carry handle such that raising of the carry handle results in the stop button entering the activated state and depression of the carry handle results in the stop button entering the deactivated state; the switching mechanism further comprising a switch in communication with the stop button for switching the outdoor robotic tool between an operable state in the deactivated state of the stop button and an inoperable state in the activated state of the stop button. a switching assembly comprising a carry handle, and further comprising and a stop button having activated and deactivated states and being configured to be pressed by a user, the stop button being operatively connected to the carry handle such that raising of the carry handle results in the stop button entering the activated state and depression of the carry handle results in the stop button entering the deactivated state; the switching mechanism further comprising a switch in communication with the stop button for switching the outdoor robotic tool between an operable state in the deactivated state of the stop button and an inoperable state in the activated state of the stop button.
Device for detecting geometric data of a track formed from two rails (1, 2) with a frame movable on the track, wherein the device comprises a first and a second measuring means carrier (3, 4) held on the frame respectively, and means for aligning at least one of the two measuring means carriers with respect to one of the two rails (1, 2), wherein each measuring means carrier (3, 4) has a bracket, which has a first detachable receiving device, which is set up for receiving a leveling bar and a second detachable receiving device, which is set up for receiving a reflector element set up to reflect a laser beam.
A system, comprising: a linear synchronous motor including a rotor comprising alternating pole permanent magnets, with each permanent magnet being secured to rotor panels of a roller coaster track, wherein the rotor panels form an articulated spine, such that each portion that contains a permanent magnet forms a vertebra of the spine and the vertebrae are separated by a flexible substrate that allows the spine to bend around a helix's arc of a compound curve, wherein the rotor is installed on two sides of a compound curved portion of the roller coaster track, and a stator comprising linear coil windings secured to the bottom of a ride vehicle disposed on the track, the ride vehicle comprising: a power source; and a processor configured to determine how much power to supply to the linear coil windings and when to supply the power to maintain sufficient air gaps between the stator and the rotor panels and to cause the power source to supply the power as determined throughout the compound curved portion of the roller coaster track. a power source; and a processor configured to determine how much power to supply to the linear coil windings and when to supply the power to maintain sufficient air gaps between the stator and the rotor panels and to cause the power source to supply the power as determined throughout the compound curved portion of the roller coaster track.
A method, comprising: receiving a microphone signal; determining whether the microphone signal contains noise above a noise threshold; determining whether the microphone signal contains speech when the noise threshold is exceeded; determining a noise estimate for the microphone signal when speech is found not to be present; performing noise filtering using the noise estimate on the microphone signal when speech is found to be present; and performing feature extraction on the microphone signal when speech is found to be present, wherein the feature extraction and the noise estimate use an output of the same Fourier Transform, such that the noise filtering of the speech is embedded with the feature extraction of the speech. receiving a microphone signal; determining whether the microphone signal contains noise above a noise threshold; determining whether the microphone signal contains speech when the noise threshold is exceeded; determining a noise estimate for the microphone signal when speech is found not to be present; performing noise filtering using the noise estimate on the microphone signal when speech is found to be present; and performing feature extraction on the microphone signal when speech is found to be present, wherein the feature extraction and the noise estimate use an output of the same Fourier Transform, such that the noise filtering of the speech is embedded with the feature extraction of the speech.
A receiver comprising: a first receiving circuit configured to receive a first data including a first symbol transmitted using three signals over a first data lane, the first data lane (DL1; DL2; DL3) including three signal lines (SIGA, SIGB, SIGC) respectively corresponding to the three signals, wherein the first receiving circuit includes a delay adjustment circuit configured to adjust a delay amount of at least one of the three signals, wherein the delay amount is based on a synchronization code included in the first data, wherein the first receiving circuit includes a first delay circuit, a second delay circuit, and a third delay circuit, wherein the first receiving circuit further includes a first amplifier, a second amplifier, and a third amplifier, the first amplifier is configured to receive a first signal and a second signal of the three signals, and to output a first amplified signal to the first delay circuit, the second amplifier is configured to receive the second signal and a third signal of the three signals, and to output a second amplified signal to the second delay circuit, and the third amplifier is configured to receive the first signal and the third signal of the three signals, and to output a third amplified signal to the third delay circuit. a first receiving circuit configured to receive a first data including a first symbol transmitted using three signals over a first data lane, the first data lane (DL1; DL2; DL3) including three signal lines (SIGA, SIGB, SIGC) respectively corresponding to the three signals, wherein the first receiving circuit includes a delay adjustment circuit configured to adjust a delay amount of at least one of the three signals, wherein the delay amount is based on a synchronization code included in the first data, wherein the first receiving circuit includes a first delay circuit, a second delay circuit, and a third delay circuit, wherein the first receiving circuit further includes a first amplifier, a second amplifier, and a third amplifier, the first amplifier is configured to receive a first signal and a second signal of the three signals, and to output a first amplified signal to the first delay circuit, the second amplifier is configured to receive the second signal and a third signal of the three signals, and to output a second amplified signal to the second delay circuit, and the third amplifier is configured to receive the first signal and the third signal of the three signals, and to output a third amplified signal to the third delay circuit.
An occipital plate comprising: an occipital bony attachment section having a plurality of through holes for securing the occipital plate to a portion of a skull; first and second angled connector sections pinned to the occipital bony attachment section via a pin, the first and second angled connector sections being laterally spaced apart and defining a gap therebetween and being independently adjustable such that the first connector section defines a first angular deviation with respect to the attachment section and the second connector section defines a second angular deviation with respect to the attachment section; and first and second polyaxial connector assemblies connected to respective first and second connector sections, each polyaxial connector assembly movable to adjust an orientation of an opening of the polyaxial connector assembly, wherein each polyaxial connector assembly includes a threaded element that is threadably engageable with the occipital plate to couple each polyaxial connector assembly to the occipital plate. an occipital bony attachment section having a plurality of through holes for securing the occipital plate to a portion of a skull; first and second angled connector sections pinned to the occipital bony attachment section via a pin, the first and second angled connector sections being laterally spaced apart and defining a gap therebetween and being independently adjustable such that the first connector section defines a first angular deviation with respect to the attachment section and the second connector section defines a second angular deviation with respect to the attachment section; and first and second polyaxial connector assemblies connected to respective first and second connector sections, each polyaxial connector assembly movable to adjust an orientation of an opening of the polyaxial connector assembly, wherein each polyaxial connector assembly includes a threaded element that is threadably engageable with the occipital plate to couple each polyaxial connector assembly to the occipital plate.
Extrusion device for a plastics profile, in particular a hollow chamber profile, comprising an extruder, an extrusion nozzle arranged on the outlet of the extruder for shaping the plastics profile, a calibration device through which the plastics profile is guided after the extrusion nozzle, a removal device for the plastics profile downstream of the calibration device, and a cutting device for separating parts of the extruded plastics profile, comprising a profile monitoring device for acquiring at least one profile parameter of the plastics profile in the extrusion direction after emerging from the extrusion nozzle, and/or a process monitoring device for acquiring at least one process parameter in and/or in front of the extruder, the extrusion nozzle, the calibration device, the removal device and/or the cutting device, wherein the data of the profile monitoring device and/or of the process monitoring device can be used by a control device of the extrusion device for setting at least one control variable (S1, S2, S3, S4, S5, S6) or a set of control variables (S1, S2, S3, S4, S5, S6) at the extruder, at the extrusion nozzle, at the calibration device, at the removal device and/or at the cutting device depending on the data, wherein the control device comprises a means for performing a mathematical optimisation of a set of control variables (S1, S2, S3, S4, S5, S6) under at least one secondary condition with respect to a value of the at least one profile parameter, of the at least one process parameter, and/or of the at least one control variable (S1, S2, S3, S4, S5, S6) of the set of control variables (S1, S2, S3, S4, S5, S6), characterised in that the at lest one secondary condition can be expressed as a penalty function. a profile monitoring device for acquiring at least one profile parameter of the plastics profile in the extrusion direction after emerging from the extrusion nozzle, and/or a process monitoring device for acquiring at least one process parameter in and/or in front of the extruder, the extrusion nozzle, the calibration device, the removal device and/or the cutting device, wherein the data of the profile monitoring device and/or of the process monitoring device can be used by a control device of the extrusion device for setting at least one control variable (S1, S2, S3, S4, S5, S6) or a set of control variables (S1, S2, S3, S4, S5, S6) at the extruder, at the extrusion nozzle, at the calibration device, at the removal device and/or at the cutting device depending on the data, wherein the control device comprises a means for performing a mathematical optimisation of a set of control variables (S1, S2, S3, S4, S5, S6) under at least one secondary condition with respect to a value of the at least one profile parameter, of the at least one process parameter, and/or of the at least one control variable (S1, S2, S3, S4, S5, S6) of the set of control variables (S1, S2, S3, S4, S5, S6), characterised in that the at lest one secondary condition can be expressed as a penalty function.
A fibre composite component with at least one spring section and at least one force transfer structure (2, 2.1), wherein the fibre composite material of the fibre composite component, in the end portion forming or surrounding the force transfer element, is divided in a plane perpendicular to the longitudinal direction of the force transfer structure (2, 2.1) into at least two fibre composite material strands (4, 4.1, 4.2), characterised in that two adjacent fibre composite material strands (4, 4.1, 4.2), in order to form in each case an eye, run in opposite directions, with the formation of an overlap extending over a specific angular portion, and with their mutually opposed side faces being connected to one another in non-positive fit in the overlapping portion.
An apparatus comprising: a controller operative to obtain a selection of a single code rate for all data streams in a plurality of data streams wherein the single code rate is selected from among a plurality of code rates and wherein the controller is further operative to obtain a selection of a plurality of modulation schemes for the plurality of data streams to be sent to a single receiver, wherein a modulation scheme for each of the plurality of data streams is selected from among a set of modulation schemes associated with the single code rate; and a processor operative to encode the plurality of data streams with the single code rate and to modulate the plurality of data streams with the modulation scheme for each of the plurality of data streams, selected from among the plurality of modulation schemes, said processor further operative to jointly encode the plurality of data streams in accordance with the single code rate and to independently modulate the plurality of data streams in accordance with the plurality of modulation schemes. a controller operative to obtain a selection of a single code rate for all data streams in a plurality of data streams wherein the single code rate is selected from among a plurality of code rates and wherein the controller is further operative to obtain a selection of a plurality of modulation schemes for the plurality of data streams to be sent to a single receiver, wherein a modulation scheme for each of the plurality of data streams is selected from among a set of modulation schemes associated with the single code rate; and a processor operative to encode the plurality of data streams with the single code rate and to modulate the plurality of data streams with the modulation scheme for each of the plurality of data streams, selected from among the plurality of modulation schemes, said processor further operative to jointly encode the plurality of data streams in accordance with the single code rate and to independently modulate the plurality of data streams in accordance with the plurality of modulation schemes.
A polypeptide comprising the amino acid sequence of SEQ ID NO: 63 or a fragment thereof, which retains a hair growth stimulatory activity of the amino acid sequence of SEQ ID NO: 63
A method of preserving relative timing and ordering of data packets transmitted in a packet network, the packet network comprising packet engines (12, 22, 32; 50) that perform packet handling, wherein cipher engines (14, 24, 34; 60) are provided separately from the packet engines (12, 22, 32; 50) for encryption and/or authentication operations, the method comprising: pre-shaping data traffic by a packet engine (12, 22, 32; 50), wherein the packet engine (12, 22, 32; 50) inserts dummy packets into a data flow, wherein pre-shaping the data traffic further comprises enlarging an inter-packet gap at an egress port of the packet engine (12, 22, 32; 50); and providing, by the packet engine (12, 22, 32; 50), the pre-shaped data traffic to a cipher engine (14, 24, 34; 60). pre-shaping data traffic by a packet engine (12, 22, 32; 50), wherein the packet engine (12, 22, 32; 50) inserts dummy packets into a data flow, wherein pre-shaping the data traffic further comprises enlarging an inter-packet gap at an egress port of the packet engine (12, 22, 32; 50); and providing, by the packet engine (12, 22, 32; 50), the pre-shaped data traffic to a cipher engine (14, 24, 34; 60).
An uninterruptible power supply, comprising: an input configured to receive input power; an output; a power conversion circuit coupled with the input and the output; a controller coupled with the power conversion circuit; the power conversion circuit comprising an inverter; the inverter comprising a low pass filter; and the low pass filter comprising an inductor; characterized in that the controller is configured to provide control signals to the inverter such that a first current, measured at the inductor, generates a second current at the output having an output waveform, the first current having a first polarity and the second current having a second polarity, wherein the first polarity is either zero or the same polarity as the second polarity over a complete cycle of the output waveform. an input configured to receive input power; an output; a power conversion circuit coupled with the input and the output; a controller coupled with the power conversion circuit; the power conversion circuit comprising an inverter; the inverter comprising a low pass filter; and the low pass filter comprising an inductor;
A diffuser assembly comprising: a leaf spring arranged as a rectangular frame having a width and height; a diffuser suspended within the frame; and at least one actuator provided within the frame and being arranged to move the diffuser, wherein the assembly is arranged such that the leaf spring provides in-plane stiffness less than the out-of-plane stiffness, wherein the at least one actuator comprises a motor having a stator attached to the diffuser and a rotor having a spinning eccentric load. a leaf spring arranged as a rectangular frame having a width and height; a diffuser suspended within the frame; and at least one actuator provided within the frame and being arranged to move the diffuser, wherein the assembly is arranged such that the leaf spring provides in-plane stiffness less than the out-of-plane stiffness, wherein the at least one actuator comprises a motor having a stator attached to the diffuser and a rotor having a spinning eccentric load.
Method for automatically bringing a vehicle to a standstill, comprising the steps of: - reducing the speed of the vehicle to a transition speed which lies a transition speed range of from 55 km/h to 85 km/h; - remaining in the transition speed range for a transition time interval with a duration of at least 20 seconds; - further reducing the speed of the vehicle until the vehicle comes to a standstill after the transition time interval has elapsed. - reducing the speed of the vehicle to a transition speed which lies a transition speed range of from 55 km/h to 85 km/h; - remaining in the transition speed range for a transition time interval with a duration of at least 20 seconds; - further reducing the speed of the vehicle until the vehicle comes to a standstill after the transition time interval has elapsed.
Electrical plug connector configuration, consisting of a first plug connector housing in which first male contact elements are located, and a second plug connector housing in which second male contact elements are located, whereby the second plug connector housing is made up of an outer housing and a contact carrier insert which can be displaced towards each other by force amplifying means resulting from a rotary or sliding actuation, whereby the contact carrier insert has receiving apertures for accommodating the second male contact elements, whereby the first and the second plug connector housings (1, 2) each possess at least one housing wall showing sections that are parallel to each other when the plug connector housings (1, 2) are joined together, and whereby a seal is located between the first and the second plug connector housing (1, 2) which fits closely against the first and also against the second plug connector housing (1, 2) when the plug connector housings (1, 2) are joined together, characterised in that the second male contact elements are immovably located against the contact carrier insert, that the contact carrier insert can be locked in place with the first plug connector housing, and that a displacement of the outer housing against the contact carrier insert results in the seal being axially compressed between the plug connector housings (1, 2) and thus radially expanded and pressed onto at least one inner housing wall of the outer housing and onto at least one outer housing wall of the contact carrier insert.