mhurhangee/patent-ind-claim-en huggingface dataset:
A data updating method of a circuit board work system including a plurality of circuit board working machines each of which is provided with a control computer and which performs work on a circuit board , a host computer which is provided to be shared by the plurality of circuit board working machines and which manages each of the control computers , and a database server in which data relating to a work target circuit board is stored, the method comprising: a step of reporting a change in data relating to the work target circuit board to the host computer ; a step of updating the data which is stored in the database server based on the change in the data relating to the work target circuit board for which the report is received; and a step of acquiring partial data relating to the update among the data items which are stored in the database server by the control computer , wherein in the step of reporting changes to data relating to the work target circuit board are reported to the host computer , content in which at least one data item relating to shapes and mounting positions of electronic components which are mounted onto the circuit board by each of the plurality of circuit board working machines is changed according to results of mounting the electronic components onto the circuit board is reported as a change in the data relating to the work target circuit board . a step of reporting a change in data relating to the work target circuit board to the host computer ; a step of updating the data which is stored in the database server based on the change in the data relating to the work target circuit board for which the report is received; and a step of acquiring partial data relating to the update among the data items which are stored in the database server by the control computer , wherein in the step of reporting changes to data relating to the work target circuit board are reported to the host computer , content in which at least one data item relating to shapes and mounting positions of electronic components which are mounted onto the circuit board by each of the plurality of circuit board working machines is changed according to results of mounting the electronic components onto the circuit board is reported as a change in the data relating to the work target circuit board .
A signal processing device for non-linear analog-to-digital converting of an analog input signal into a digital output signal, comprising a Delta-Sigma, DS, converter, the DS converter comprising a subtraction unit, an integration unit, a quantization unit and a delay unit, the device being characterized by further comprising: - A phase modulator, PM, in the feed-forward branch of the DS converter for performing phase modulation of either the signal integrated by the integration unit or the signal quantized by the quantization unit, and a phase demodulator in series with the delay unit in the feedback branch of the DS converter, where the phase demodulator is the corresponding demodulator to the phase modulator, performing the inverse function of the modulation performed by the phase modulator in the feed-forward branch or - A frequency modulator, FM, in the feed-forward branch of the DS converter for performing frequency modulation of either the signal integrated by the integration unit or the signal quantized by the quantization unit, and a frequency demodulator in series with the delay unit in the feedback branch of the DS converter, where the frequency demodulator is the corresponding demodulator to the frequency modulator, performing the inverse function of the modulation performed by the frequency modulator in the feed-forward branch. - A phase modulator, PM, in the feed-forward branch of the DS converter for performing phase modulation of either the signal integrated by the integration unit or the signal quantized by the quantization unit, and a phase demodulator in series with the delay unit in the feedback branch of the DS converter, where the phase demodulator is the corresponding demodulator to the phase modulator, performing the inverse function of the modulation performed by the phase modulator in the feed-forward branch or - A frequency modulator, FM, in the feed-forward branch of the DS converter for performing frequency modulation of either the signal integrated by the integration unit or the signal quantized by the quantization unit, and a frequency demodulator in series with the delay unit in the feedback branch of the DS converter, where the frequency demodulator is the corresponding demodulator to the frequency modulator, performing the inverse function of the modulation performed by the frequency modulator in the feed-forward branch.
A lighting device comprising a light-transmissive enclosure and a light source , wherein the light-transmissive enclosure has an outer surface and an inner surface opposite to the outer surface , the inner surface at least in part forming a cavity , wherein the light-transmissive enclosure has an opening lying in a transverse plane (P1), wherein the light source is arranged on the transverse plane (P1), or on a side of the transverse plane (P1) opposite of the light-transmissive enclosure , and configured to emit light into the cavity , wherein the light-transmissive enclosure is arranged around a longitudinal axis (L), the longitudinal axis (L) lying in a longitudinal plane (P2) that is perpendicular to the transverse plane (P1), wherein the light-transmissive enclosure has a first part and a second part separated from each other by the longitudinal plane (P2), wherein the first part is shaped as a first parabolic segment having a first focal point that is located on the transverse plane (P1) and between the second part and the longitudinal plane (P2), wherein the second part is shaped as a second parabolic segment having a second focal point that is located on the transverse plane (P1) and between the first part and the longitudinal plane (P2), and wherein the light source is arranged between the first focal point and the second focal point . wherein the light-transmissive enclosure has an outer surface and an inner surface opposite to the outer surface , the inner surface at least in part forming a cavity , wherein the light-transmissive enclosure has an opening lying in a transverse plane (P1), wherein the light source is arranged on the transverse plane (P1), or on a side of the transverse plane (P1) opposite of the light-transmissive enclosure , and configured to emit light into the cavity , wherein the light-transmissive enclosure is arranged around a longitudinal axis (L), the longitudinal axis (L) lying in a longitudinal plane (P2) that is perpendicular to the transverse plane (P1), wherein the light-transmissive enclosure has a first part and a second part separated from each other by the longitudinal plane (P2), wherein the first part is shaped as a first parabolic segment having a first focal point that is located on the transverse plane (P1) and between the second part and the longitudinal plane (P2), wherein the second part is shaped as a second parabolic segment having a second focal point that is located on the transverse plane (P1) and between the first part and the longitudinal plane (P2), and wherein the light source is arranged between the first focal point and the second focal point .
An immunoglobulin or a fragment thereof comprising a variable heavy chain (VH) and a variable light chain (VL), wherein the variable heavy chain (VH) comprises the amino acid sequence of SEQ ID NO: 164, and the variable light chain (VL) comprises the amino acid sequence of SEQ ID NO: 87.
A process for preparing a nanoporous polyalkoxysilane sol-gel matrix containing carmine indigo, said process comprising the following steps: a) synthesis of a gel from tetramethoxysilane or from a mixture of tetramethoxysilane and of another organosilicon precursor chosen from phenyltrimethoxysilane, phenyltriethoxysilane, a fluoroalkyltrimethoxysilane, a fluoroalkyltriethoxysilane, a chloroalkylmethoxysilane, a chloroalkylethoxysilane, an aminopropyltriethoxysilane, and mixtures thereof, the synthesis being performed in aqueous medium in the presence of a polar organic solvent and of carmine indigo at a temperature ranging from 20 to 70°C, b) drying of the gel obtained in step a) so as to obtain a nanoporous polyalkoxysilane sol-gel matrix containing carmine indigo. a) synthesis of a gel from tetramethoxysilane or from a mixture of tetramethoxysilane and of another organosilicon precursor chosen from phenyltrimethoxysilane, phenyltriethoxysilane, a fluoroalkyltrimethoxysilane, a fluoroalkyltriethoxysilane, a chloroalkylmethoxysilane, a chloroalkylethoxysilane, an aminopropyltriethoxysilane, and mixtures thereof, the synthesis being performed in aqueous medium in the presence of a polar organic solvent and of carmine indigo at a temperature ranging from 20 to 70°C, b) drying of the gel obtained in step a) so as to obtain a nanoporous polyalkoxysilane sol-gel matrix containing carmine indigo.
A conductor terminal comprising: a) at least one insulating material housing , b) at least one contact insert , which is arranged at least predominantly within the insulating material housing and which has at least one clamping spring , c) at least one actuating lever formed as a component separate from the insulating material housing , by means of which the clamping spring can be deflected, wherein the actuating lever can be pivoted at least from an open into a closed position and vice versa, d) wherein the insulating material housing has as separate components at least one main housing part and a cover part which can be positively fixed to the main housing part by means of at least one positive-locking element , e) wherein the actuating lever has at least one retaining edge , characterized in that f) the cover part is secured against detachment from the main housing part at least when the actuating lever is closed by means of the at least one retaining edge , in that the at least one positive-locking element of the cover part is overlapped or embraced by the at least one retaining edge . a) at least one insulating material housing , b) at least one contact insert , which is arranged at least predominantly within the insulating material housing and which has at least one clamping spring , c) at least one actuating lever formed as a component separate from the insulating material housing , by means of which the clamping spring can be deflected, wherein the actuating lever can be pivoted at least from an open into a closed position and vice versa, d) wherein the insulating material housing has as separate components at least one main housing part and a cover part which can be positively fixed to the main housing part by means of at least one positive-locking element , e) wherein the actuating lever has at least one retaining edge , characterized in that f) the cover part is secured against detachment from the main housing part at least when the actuating lever is closed by means of the at least one retaining edge , in that the at least one positive-locking element of the cover part is overlapped or embraced by the at least one retaining edge .
A building block to be aligned with other building blocks to build a modular barrier adapted to stop vehicles that are moving on a ground, wherein the building block comprises: a connector having two receiving pockets, wherein one of said receiving pockets is laterally directed and one of said receiving pockets is directed in a predetermined angle of more than 90° relative to the receiving pocket that is laterally directed, wherein the connector is provided with a pointing element that provides a thrust point; two poles, wherein one of the poles is configured to be received within one of the two receiving pockets that is laterally directed so that the pole is substantially parallel to the ground and wherein the other one of the poles is configured to be received within one of the two receiving pockets that is directed in the predetermined angle so as to allow the modular barrier to stop the vehicles; and a rotating bar that is connected to one of the poles through a flange, wherein the rotating bar is adapted to connect the pole to a pole of an adjacent building block. a connector having two receiving pockets, wherein one of said receiving pockets is laterally directed and one of said receiving pockets is directed in a predetermined angle of more than 90° relative to the receiving pocket that is laterally directed, wherein the connector is provided with a pointing element that provides a thrust point; two poles, wherein one of the poles is configured to be received within one of the two receiving pockets that is laterally directed so that the pole is substantially parallel to the ground and wherein the other one of the poles is configured to be received within one of the two receiving pockets that is directed in the predetermined angle so as to allow the modular barrier to stop the vehicles; and a rotating bar that is connected to one of the poles through a flange, wherein the rotating bar is adapted to connect the pole to a pole of an adjacent building block.
Photodetector for imaging applications, in particular high speed imaging applications, comprising: a photodiode array having a plurality of photodiodes , wherein each photodiode has a bulk sensitive area and a periphery at photo-lithographically defined edges of the bulk sensitive area of the photodiode , and a charge trapping suppressing unit configured to suppress a trapping of charges at the edges of the photodiodes , wherein the charge trapping suppressing unit comprises metal bias lines in direct contact with the bulk sensitive area directly at the periphery of the bulk sensitive area of the photodiode , said metal bias lines being connectable to a voltage source to bias the bias lines to repel carriers of same polarity as the bias line polarity from trap sites at the edges of the photodiode , wherein the bulk sensitive area comprises amorphous state material, wherein the photodiodes each comprise a bottom metal electrode , the bulk sensitive material with its periphery at photo-lithographically defined edges, and a top metal electrode , wherein the top electrode is facing incoming light, wherein the bottom electrode is facing away from the incoming light, wherein the metal bias lines are not in contact with the bottom electrode and characterized in that the metal bias lines are not in contact with the top metal electrode of the photodiodes . a photodiode array having a plurality of photodiodes , wherein each photodiode has a bulk sensitive area and a periphery at photo-lithographically defined edges of the bulk sensitive area of the photodiode , and a charge trapping suppressing unit configured to suppress a trapping of charges at the edges of the photodiodes , wherein the charge trapping suppressing unit comprises metal bias lines in direct contact with the bulk sensitive area directly at the periphery of the bulk sensitive area of the photodiode , said metal bias lines being connectable to a voltage source to bias the bias lines to repel carriers of same polarity as the bias line polarity from trap sites at the edges of the photodiode , wherein the bulk sensitive area comprises amorphous state material, wherein the photodiodes each comprise a bottom metal electrode , the bulk sensitive material with its periphery at photo-lithographically defined edges, and a top metal electrode , wherein the top electrode is facing incoming light, wherein the bottom electrode is facing away from the incoming light, wherein the metal bias lines are not in contact with the bottom electrode and characterized in that the metal bias lines are not in contact with the top metal electrode of the photodiodes .
Sensor assembly for load detection on a chassis part of a utility vehicle, having at least one transmission body , the transmission body having at least one first fastening section , at least one second fastening section and at least one sensor section , each fastening section has at least one mounting recess , at least one clamping surface and at least one contact surface , the contact surface being directed towards the chassis part in the mounted state, the sensor section connecting the first fastening section to the second fastening section , and wherein at least one sensor is arranged on the sensor section , wherein the transmission body is at least partially embedded in a first elastic capsule material , and wherein the first elastic capsule material is at least partially surrounded by a decoupling part , characterized in that the first capsule material and the decoupling part have recesses arranged coaxially to the mounting recesses , so that a fastening means which can be inserted into the recesses can interact directly with the clamping surface of the respective fastening section of the transmission body .
A method for synchronizing an identity of a user (310; 410; 510) between a network observer and a third party (321; 421; 521), the method comprising: reading, by the network observer, a connection request sent from the user (310; 410; 510) to the third party (321; 421; 521), the connection request being an HTTPS request including a host field, wherein the host field is in a server name indication, SNI, field of transport layer security, TLS, and comprises a host part corresponding to the third party (321; 421; 521) and a sub-host part corresponding to identification information of the user (310; 410; 510); and associating, by the network observer in a database, the identification information of the user (310; 410; 510) derived from the sub-host part with the identity of the user (310; 410; 510) and an identity of the third party (321; 421; 521). reading, by the network observer, a connection request sent from the user (310; 410; 510) to the third party (321; 421; 521), the connection request being an HTTPS request including a host field, wherein the host field is in a server name indication, SNI, field of transport layer security, TLS, and comprises a host part corresponding to the third party (321; 421; 521) and a sub-host part corresponding to identification information of the user (310; 410; 510); and associating, by the network observer in a database, the identification information of the user (310; 410; 510) derived from the sub-host part with the identity of the user (310; 410; 510) and an identity of the third party (321; 421; 521).
A cable hook fixing a rebound mat to a trampoline frame by means of two elastic elements and at least one flexible strap element , wherein the cable hook comprises a cable hook housing with four receivers , wherein each elastic element has two free ends, each of which has a clamping element enlarging the periphery of the elastic element , wherein a clamping element of the two elastic elements can be inserted in each of said receivers , wherein the cable hook has at least one receiving cavity arranged centrally between two of the receivers and a terminating piece assigned to said receiving cavity , which terminating piece can be inserted in said receiving cavity and has a cover rounding which points away from the cable hook housing and is oriented towards the flexible strap element to be arranged centrally.
An oil/water separator (10; 10') for removing oleaginous constituents from an oil/water mixture, comprising a top housing, a condensate line and a main filter which is designed to separate oleaginous constituents from the oil/water mixture, an oil/water mixture that is to be cleaned being feedable to the main filter from the top housing via the condensate line and, after passing through the main filter , being dischargeable from the oil/water separator (10; 10'), and the oil/water separator (10; 10') being designed for feed and discharge of these liquids according to the hydrostatic principle, the top housing being arranged above the main filter and the distance between the top housing and the main filter being at least 0.5 m such that a hydrostatic pressure of at least 0.05 bar may result at the main filter , characterised in that the condensate line is variable in length.
A photoconductive device, comprising: a light source , controlled by an electrical signal, configured to emit a beam of light; a crystalline material doped with a dopant positioned to receive the beam of light from the light source, wherein, upon excitation of the crystalline material by a particular wavelength or a range of wavelength of the beam of light, the dopant forms a mid-gap state within a bandgap of the crystalline material to achieve a recombination time that is at least one order of magnitude smaller than a characteristic time of a highest frequency component of the electrical signal controlling the light source; wherein the crystalline material is configured to exhibit a substantially linear transconductance in response to receiving the beam of light; and a pair of electrodes coupled to the crystalline material and configured to allow an electric field to be established across the crystalline material . a light source , controlled by an electrical signal, configured to emit a beam of light; a crystalline material doped with a dopant positioned to receive the beam of light from the light source, wherein, upon excitation of the crystalline material by a particular wavelength or a range of wavelength of the beam of light, the dopant forms a mid-gap state within a bandgap of the crystalline material to achieve a recombination time that is at least one order of magnitude smaller than a characteristic time of a highest frequency component of the electrical signal controlling the light source; wherein the crystalline material is configured to exhibit a substantially linear transconductance in response to receiving the beam of light; and a pair of electrodes coupled to the crystalline material and configured to allow an electric field to be established across the crystalline material .
A method for wireless communication, comprising: determining, by a network apparatus, that a demodulation reference signal has two symbols; determining, by the network apparatus, a first parameter associated with the demodulation reference signal; determining, by the network apparatus, according to the first parameter, a second parameter associated with a second reference signal that is different than the demodulation reference signal; and selectively receiving or transmitting the second reference signal according to the second parameter, wherein the receiving or transmitting of the second reference signal and applying a time-domain orthogonal sequence of the two symbols of the demodulation reference signal do not occur simultaneously. determining, by a network apparatus, that a demodulation reference signal has two symbols; determining, by the network apparatus, a first parameter associated with the demodulation reference signal; determining, by the network apparatus, according to the first parameter, a second parameter associated with a second reference signal that is different than the demodulation reference signal; and selectively receiving or transmitting the second reference signal according to the second parameter, wherein the receiving or transmitting of the second reference signal and applying a time-domain orthogonal sequence of the two symbols of the demodulation reference signal do not occur simultaneously.