mhurhangee/patent-ind-claim-en huggingface dataset:
A thermistor assembly, comprising: a thermistor body ; a thermistor tip disposed at a first end of the thermistor body , a compliant material , the compliant material at least partially encasing the thermistor tip ; a flexible clip , operably connected at a central portion to the thermistor body and comprising lateral portions , which are configured to flex perpendicularly with respect to an outer surface of a battery cell; wherein the clip and compliant material are operable to retain the thermistor tip against a battery cell; and characterized by further comprising a thermistor mount defining a central hole configured to receive the central portion of the flexible clip such that the central portion is spaced apart from the thermistor mount , and defining a lateral hole for each of the lateral portions of the clip, each lateral hole separate from the central hole and configured to receive an end of a respective lateral portion of the clip such that the lateral portions of the clip are coupled to the thermistor mount ; wherein the central hole and the lateral holes are through-holes. a thermistor body ; a thermistor tip disposed at a first end of the thermistor body , a compliant material , the compliant material at least partially encasing the thermistor tip ; a flexible clip , operably connected at a central portion to the thermistor body and comprising lateral portions , which are configured to flex perpendicularly with respect to an outer surface of a battery cell; wherein the clip and compliant material are operable to retain the thermistor tip against a battery cell; and characterized by further comprising a thermistor mount defining a central hole configured to receive the central portion of the flexible clip such that the central portion is spaced apart from the thermistor mount , and defining a lateral hole for each of the lateral portions of the clip, each lateral hole separate from the central hole and configured to receive an end of a respective lateral portion of the clip such that the lateral portions of the clip are coupled to the thermistor mount ; wherein the central hole and the lateral holes are through-holes.
Material relocation device for relocation of materials, the material relocation device comprising a relocation base comprising two opposite open ends and two side walls, and a material relocation structure connected to the relocation base for the relocation of materials towards a user and away from the user, the relocation structure comprising a turning flap structure , to be turned according to a movement direction of material relocation, the material relocation device further comprising means for turning the flap structure, and a counter-structure for setting the flap structure to a desired position thereof, in such a way that in a first movement direction the flap structure turns open for allowing the materials onto the relocation base through one of the opposite open ends, and in a second relocation direction the flap structure is closed for holding the materials on the relocation base and for allowing release of the material through another one of the two open ends of the relocation base , characterized in that the device comprises a turnable handle to be turned to a different position according to the selected use, wherein the turnable handle is attached to the two side walls for pushing and pulling the device.
A compound helicopter with at least one main rotor and a fuselage that extends along a longitudinal axis from a front fuselage section to a rear fuselage section , comprising: at least a first braced wing in joined-wing configuration and a second braced wing in joined-wing configuration, wherein the first braced wing comprises a first upper wing and a first lower wing which are interconnected in a first interconnection region , and wherein the second braced wing comprises a second upper wing and a second lower wing which are interconnected in a second interconnection region ; and characterised in that said compound helicopter further comprises an emergency floatation system with main floatation balloons and lateral floatation balloons, wherein the main floatation balloons comprise at least one front floatation balloon that is arranged in the front fuselage section and at least one rear floatation balloon that is arranged in the rear fuselage section , and wherein the lateral floatation balloons comprise at least one first lateral floatation balloon that is mounted to the first lower wing and arranged close to the first interconnection region and at least one second lateral floatation balloon that is mounted to the second lower wing and arranged close to the second interconnection region , wherein the at least one first lateral floatation balloon is stored in uninflated state in a first jettisonable container unit that is mounted to and jettisonable from the first lower wing , and wherein the at least one second lateral floatation balloon is stored in uninflated state in a second jettisonable container unit that is mounted to and jettisonable from the second lower wing .
A conductive solid oxide fuel cell (SOFC) electrolyte composition, said composition comprising: a. gadolinium doped ceria; and b. glass composite, characterized in that , the conductive SOFC electrolyte composition is physically and chemically compatible with the casing material of the SOFC, the glass composite comprises 95 wt % to 99 wt % bismuth oxide and 1 wt % to 5 wt % potassium oxide; the casing material is a low temperature co-fired ceramics (LTCC) material; the casing material has a thermal expansion coefficient of 5.8 ppm/°C; and shrinkage in the range of 12 % to 13 % of the initial value; and the electrolyte composition has a thermal expansion coefficient in the range of 5.80 ppm/°C to 7.00 ppm/°C; and shrinkage in the range of 12 % to 13 % of the initial value. a. gadolinium doped ceria; and b. glass composite, characterized in that , the conductive SOFC electrolyte composition is physically and chemically compatible with the casing material of the SOFC, the glass composite comprises 95 wt % to 99 wt % bismuth oxide and 1 wt % to 5 wt % potassium oxide; the casing material is a low temperature co-fired ceramics (LTCC) material; the casing material has a thermal expansion coefficient of 5.8 ppm/°C; and shrinkage in the range of 12 % to 13 % of the initial value; and the electrolyte composition has a thermal expansion coefficient in the range of 5.80 ppm/°C to 7.00 ppm/°C; and shrinkage in the range of 12 % to 13 % of the initial value.
A method for the maintenance of a ground-level power supply device for a transport vehicle, said device including: - a ground-level power supply rail ; said power supply rail including electrically conductive segments and electrically insulating segments , alternating and substantially aligned ; the power supply rail extending between two travel rails of the transport vehicle ; - a device for detecting spatial coordinates of a vehicle; and - a supply shoe ; said detection device and said supply shoe equipping a same transport vehicle , the supply shoe being able to rub against the power supply rail during a movement of said vehicle along said power supply rail; the supply shoe including a sensor detecting vibrations of said shoe in contact with the power supply rail; the power supply device including at least one camera , allowing to visualize a position of the supply shoe relative to the supply rail or to a body of the vehicle ; and the method including the following steps: - moving the transport vehicle along the power supply rail; - during said movement, measuring vibrations of the supply shoe and simultaneously detecting spatial coordinates of the vehicle ; then - comparing measured vibrations of the supply shoe with a threshold value, and - determining spatial coordinates corresponding to vibrations above said threshold value ; and - in parallel, recording of a video by the camera ; analysis of said video so as to detect a vertical jump of the shoe or a displacement of the shoe in a direction (Y) perpendicular to the displacement of the vehicle ; and correlation of a vibration of the supply shoe above the threshold value, measured by the sensor, with said jump or displacement of the shoe. - a ground-level power supply rail ; said power supply rail including electrically conductive segments and electrically insulating segments , alternating and substantially aligned ; the power supply rail extending between two travel rails of the transport vehicle ; - a device for detecting spatial coordinates of a vehicle; and - a supply shoe ; - moving the transport vehicle along the power supply rail; - during said movement, measuring vibrations of the supply shoe and simultaneously detecting spatial coordinates of the vehicle ; then - comparing measured vibrations of the supply shoe with a threshold value, and - determining spatial coordinates corresponding to vibrations above said threshold value ; and - in parallel, recording of a video by the camera ; analysis of said video so as to detect a vertical jump of the shoe or a displacement of the shoe in a direction (Y) perpendicular to the displacement of the vehicle ; and correlation of a vibration of the supply shoe above the threshold value, measured by the sensor, with said jump or displacement of the shoe.
A treatment apparatus for the surgical correction of defective vision of an eye of a patient , which comprises a laser device (L), including a laser and a three-dimensional focus adjustment device , and which separates corneal tissue by irradiating pulsed, focused laser radiation , the treatment apparatus comprising - a control unit for controlling the laser and the three-dimensional focus adjustment device in accordance with control data, - an interface for receiving the control data from a planning device, the control data specifying a three-dimensional pattern of target points which are located in a boundary surface in the cornea to be formed as a cut surface and which define support points of a path for the focus of the focused laser radiation, - wherein the control unit is configured to control the three-dimensional focus adjustment device in such a way that it adjusts the focus of the focused laser radiation along the path in accordance with the target points specified by the control data, characterized in that - the laser device (L) is configured to emit pulses of the pulsed laser radiation into the cornea at points which are not specified by the control data and lie on the path between the target points specified by the control data. - a control unit for controlling the laser and the three-dimensional focus adjustment device in accordance with control data, - an interface for receiving the control data from a planning device, the control data specifying a three-dimensional pattern of target points which are located in a boundary surface in the cornea to be formed as a cut surface and which define support points of a path for the focus of the focused laser radiation, - wherein the control unit is configured to control the three-dimensional focus adjustment device in such a way that it adjusts the focus of the focused laser radiation along the path in accordance with the target points specified by the control data, - the laser device (L) is configured to emit pulses of the pulsed laser radiation into the cornea at points which are not specified by the control data and lie on the path between the target points specified by the control data.
A multi-channel audio decoder (200; 300; 700; 800) for providing at least two output audio signals (212, 214; 312, 314; 712, 714) on the basis of an encoded representation (210; 310; 710), wherein the multi-channel audio decoder is configured to obtain one of the output audio signals on the basis of an encoded representation of a downmix signal (222; 722), a plurality of encoded spatial parameters and an encoded representation of a residual signal (226; 724), and wherein the multi-channel audio decoder is configured to blend between a parametric coding and a residual coding in dependence on the residual signal, such that an intensity of the residual signal determines whether the decoding is mostly based on the spatial parameters in addition to the downmix signal, or whether the decoding is mostly based on the residual signal in addition to the downmix signal, or whether an intermediate state is taken in which both the spatial parameters and the residual signal affect a refinement of the output signal, to derive the output audio signals from the downmix signal.
An electroporation assembly comprising a linear electrode array comprising a plurality of contiguous electrodes provided in a single probe configured to be introduced into a treatment target region, the contiguous electrodes of the linear array configured as one anode array comprising at least two electrodes and one cathode array comprising at least two electrodes, the anode array and the cathode array being placed end to end, where the distance between the cathode array and the anode array is at least 10 μm and less than 5 mm measured as the distance between proximal edges of the closest cathode and anode pairing, and electroporation circuitry configured to generate and to apply to the linear electrode array an electroporation pulse profile to create a close electric field in the target region within millimetre or sub-millimetre dimensional space adjacent the array, to cause electroporation for transfecting one or more cells in the target region exposed to an agent to allow at least some of said agent to enter said one or more cells.
A method for receiver-side determination of a sampling time (T) of a continuous data signal (DS) and for detecting a bit value within a bit width (BB) of a serial bit data stream, comprising: - receiver-side measuring at least one filter coefficient of the continuous data stream, provided for modulating the continuous data signal (DS) to be transmitted by way of a data signal compensation device, wherein at least one filter coefficient before and at least one filter coefficient after a sampling which is carried out are measured , and - determining the sampling time (T) as a function of the at least two measured filter coefficient and a provided sampling time metric (M), in such a way that an amplitude of the continuous data signal (DS) to be transmitted achieves a maximum at this sampling time (T), wherein the sampling time metric (M) provides that the sampling time (T) is determined as a function of a sum of signal strengths of the measured filter coefficients. - receiver-side measuring at least one filter coefficient of the continuous data stream, provided for modulating the continuous data signal (DS) to be transmitted by way of a data signal compensation device, wherein at least one filter coefficient before and at least one filter coefficient after a sampling which is carried out are measured , and - determining the sampling time (T) as a function of the at least two measured filter coefficient and a provided sampling time metric (M), in such a way that an amplitude of the continuous data signal (DS) to be transmitted achieves a maximum at this sampling time (T), wherein the sampling time metric (M) provides that the sampling time (T) is determined as a function of a sum of signal strengths of the measured filter coefficients.
A voltage conversion circuit, wherein the voltage conversion circuit comprises an inductor, a first switch module, N second switch modules connected in series, N third switch modules connected in series, and N-1 flying capacitors, wherein N is an integer greater than or equal to 3; one terminal of the first switch module is separately connected to one terminal of the N second switch modules connected in series and one terminal of the N third switch modules connected in series, the other terminal of the N third switch modules connected in series is connected to a positive electrode of a high-voltage power supply, the other terminal of the first switch module and the other terminal of the N second switch modules connected in series are connected to a negative electrode of the high-voltage power supply, and a low-voltage power supply is connected to the two terminals of the first switch module through the inductor; and one terminal of an i th flying capacitor in the N-1 flying capacitors is connected to a connection point between an i th second switch module and an (i+1) th second switch module, the other terminal of the i th flying capacitor is connected to a connection point between an i th third switch module and an (i+1) th third switch module, and i is an integer greater than or equal to 1 and less than or equal to N-1; wherein the voltage conversion circuit is configured to adaptively select, based on a magnitude of a current output by the low-voltage power supply, one or more flying capacitors to participate in charging and discharging. one terminal of the first switch module is separately connected to one terminal of the N second switch modules connected in series and one terminal of the N third switch modules connected in series, the other terminal of the N third switch modules connected in series is connected to a positive electrode of a high-voltage power supply, the other terminal of the first switch module and the other terminal of the N second switch modules connected in series are connected to a negative electrode of the high-voltage power supply, and a low-voltage power supply is connected to the two terminals of the first switch module through the inductor; and one terminal of an i th flying capacitor in the N-1 flying capacitors is connected to a connection point between an i th second switch module and an (i+1) th second switch module, the other terminal of the i th flying capacitor is connected to a connection point between an i th third switch module and an (i+1) th third switch module, and i is an integer greater than or equal to 1 and less than or equal to N-1; wherein the voltage conversion circuit is configured to adaptively select, based on a magnitude of a current output by the low-voltage power supply, one or more flying capacitors to participate in charging and discharging.
Adhesive tape that can be wound and stamped for selective UV activation, comprising at least a first UV activatable adhesive compound on an epoxide basis, which comprises photo initiators and begins curing after irradiation with UVA- or UVC-radiation, a second UV activatable adhesive compound , which comprises photo initiators and begins curing after irradiation with UVA- or UVC-radiation, and a carrier , characterized in that the carrier is UV intransparent, for providing a selective UV activation of the adhesive tape, having a first surface and a second surface, wherein the first UV activatable adhesive compound is arranged on the side of the first surface of the carrier and the second UV-activatable adhesive compound is arranged on the side of the second surface of the carrier .
A transfer press for carrying out at least two forming and demolding steps on a work piece, comprising a tool block on a press table having at least two dies for receiving the work piece, a transfer system for transferring the work piece between the dies , and at least two upper tools and at least two lower tools that can execute movement relative to the press table , so that in a first forming step, the work piece can be formed in a first die by a first upper tool , in a first demolding step, the work piece can be demolded from the die by a first lower tool , in a transfer step, the work piece can be aligned by the transfer system toward a second die , in a second forming step, the work piece can be formed in the second die by a second upper tool , and in a second demolding step, the work piece can be demolded from the second die by a second lower tool , characterized in that the upper tools are installed on a ram head , the lower tools are installed on a ram base , and the ram head and the ram base are rigidly connected to one another and form a ram.
A projector comprising: a display control section configured to acquire display data from a server through a network , the display data including equipment control information, and to control other equipment according to the equipment control information, characterized in that wherein the equipment control information includes an address that identifies the other equipment and a command that identifies operation of the other equipment, and the display control section is configured to transmit the command to the address. a display control section configured to acquire display data from a server through a network , the display data including equipment control information, and to control other equipment according to the equipment control information, characterized in that wherein the equipment control information includes an address that identifies the other equipment and a command that identifies operation of the other equipment, and the display control section is configured to transmit the command to the address.
Thermal management system for a motor vehicle passenger compartment, said system including a processing unit designed to determine an operative temperature setpoint TOC(t), also called operative comfort temperature, at a given time, and to use this operative temperature setpoint to manage thermal comfort in the passenger compartment, this operative temperature setpoint TOC(t) at the given time (t) being dependent on a reference operative temperature value (TOCRef), on a variation DeltaCORP(t) in a corpulence value CORP(t) of a person at the time (t) compared to a reference corpulence value, on a variation DeltaCLO(t) in a clothing value CLO(t) at the time (t) compared to a reference clothing value and on a variation DeltaMET(t) in a metabolism activity value MET(t) at the time (t) compared to a reference metabolism activity value, characterized in that the operative temperature setpoint TOC(t) at the given time (t) is defined by the following relationship: TOC(t) = TOCRef + A(CORP,CLO,MET) x DeltaCORP(t) + B(CORP,CLO,MET) x DeltaCLO(t) + C(CORP,CLO,MET) x DeltaMET(t), in which relationship the coefficients A(CORP,CLO,MET), B(CORP,CLO,MET) and C(CORP,CLO,MET) characterize the sensitivity of the setpoint temperature to a variation in the corpulence CORP(t), the clothing CLO(t) and the metabolism MET(t), respectively, these coefficients being dependent in particular on the corpulence CORP of the passenger and on the range in which the CLO and the MET vary.