mhurhangee/patent-ind-claim-en huggingface dataset:
A microchip , comprising: a central processing unit, CPU, configured to execute a software application; an Ethernet interface configured to transmit Ethernet packets to and receive Ethernet packets from an external debugging entity; an on-chip debug and trace module configured to transform debugging data from the CPU and trace data from the CPU into a stream of Ethernet packets and to provide the stream of Ethernet packets to the Ethernet interface for transmitting the stream of Ethernet packets to the external debugging entity; a further CPU configured to execute a further software application; and a communication bus configured to communicatively connect the CPU and the further CPU with the on-chip debug and trace module , wherein the on-chip debug and trace module is configured to transform further debugging data from the further CPU executing the further software application and further trace data from the further CPU into a further stream of Ethernet packets and to provide the further stream of Ethernet packets to the Ethernet interface for transmitting the further stream of Ethernet packets to the external debugging entity. a central processing unit, CPU, configured to execute a software application; an Ethernet interface configured to transmit Ethernet packets to and receive Ethernet packets from an external debugging entity; an on-chip debug and trace module configured to transform debugging data from the CPU and trace data from the CPU into a stream of Ethernet packets and to provide the stream of Ethernet packets to the Ethernet interface for transmitting the stream of Ethernet packets to the external debugging entity; a further CPU configured to execute a further software application; and a communication bus configured to communicatively connect the CPU and the further CPU with the on-chip debug and trace module , wherein the on-chip debug and trace module is configured to transform further debugging data from the further CPU executing the further software application and further trace data from the further CPU into a further stream of Ethernet packets and to provide the further stream of Ethernet packets to the Ethernet interface for transmitting the further stream of Ethernet packets to the external debugging entity.
A spectrometer device , comprising: - an optical element designed for receiving incident light from an object and transferring the incident light to a length variable filter , wherein the optical element comprises an optical concentrator device , wherein the optical concentrator device is operated in reverse direction , wherein the optical concentrator device is adapted for reflecting incident light; - the length variable filter which is designated for separating the incident light into a spectrum of constituent wavelength signals, wherein the length variable filter is an optical filter comprising a plurality of interference filters provided in a continuous arrangement; and - a detector array comprising a plurality of pixelated sensors , wherein each of the pixelated sensors is adapted to receive at least a portion of one of the constituent wavelength signals, wherein each of the constituent wavelength signals is related to an intensity of each constituent wavelength, characterized in that the optical concentrator device has a single sidewall , wherein the single sidewall is designed as a rounded sidewall with a shape which is devoid of any corners wherein the single rounded sidewall constitutes a shell surface which is adapted to connect an entrance aperture at the entrance pupil and an exit aperture at the exit pupil as the optically guiding structure . - an optical element designed for receiving incident light from an object and transferring the incident light to a length variable filter , wherein the optical element comprises an optical concentrator device , wherein the optical concentrator device is operated in reverse direction , wherein the optical concentrator device is adapted for reflecting incident light; - the length variable filter which is designated for separating the incident light into a spectrum of constituent wavelength signals, wherein the length variable filter is an optical filter comprising a plurality of interference filters provided in a continuous arrangement; and - a detector array comprising a plurality of pixelated sensors , wherein each of the pixelated sensors is adapted to receive at least a portion of one of the constituent wavelength signals, wherein each of the constituent wavelength signals is related to an intensity of each constituent wavelength,
A method for measuring the level of the GTPase KRas Protein (KRas) in a human biological sample of formalin-fixed tissue, comprising detecting and quantifying the amount of a KRas fragment peptide in a protein digest prepared from said biological sample using mass spectrometry; and calculating the level of KRas protein in said sample; wherein the KRas fragment peptide is the peptide of SEQ ID NO:1; and wherein said level is a relative level or an absolute level.
A method for ranking MLPE apparatuses, wherein the MLPE apparatuses are in communication connection with each other in a photovoltaic system, and the method comprises: starting, by each MLPE apparatus, timing accumulated operation duration of said MLPE apparatus in response to detecting a timing-start signal, wherein the timing-start signal is detectable by each MLPE apparatus during installation of said MLPE apparatus; sending (S101), by each MLPE apparatus according to a predetermined rule, an initial message to each other MLPE apparatus, wherein the initial message comprises a serial number corresponding to said MLPE apparatus and the accumulated operation duration of said MLPE apparatus; determining (S102), by the MLPE apparatuses, a rank of the accumulated operation duration of each MLPE apparatus among the accumulated operation durations of the MLPE apparatuses according to the initial messages sent from all MLPE apparatuses; communicating (S103), by the MLPE apparatuses, with a communication host of the photovoltaic system; and reporting (S103), by the MLPE apparatuses, the rank of the accumulated operation duration of each MLPE apparatus to the communication host. starting, by each MLPE apparatus, timing accumulated operation duration of said MLPE apparatus in response to detecting a timing-start signal, wherein the timing-start signal is detectable by each MLPE apparatus during installation of said MLPE apparatus; sending (S101), by each MLPE apparatus according to a predetermined rule, an initial message to each other MLPE apparatus, wherein the initial message comprises a serial number corresponding to said MLPE apparatus and the accumulated operation duration of said MLPE apparatus; determining (S102), by the MLPE apparatuses, a rank of the accumulated operation duration of each MLPE apparatus among the accumulated operation durations of the MLPE apparatuses according to the initial messages sent from all MLPE apparatuses; communicating (S103), by the MLPE apparatuses, with a communication host of the photovoltaic system; and reporting (S103), by the MLPE apparatuses, the rank of the accumulated operation duration of each MLPE apparatus to the communication host.
A system for screening a liquid composition, the system comprising: (a) a test cell having a top portion and a bottom portion , the test cell comprising (i) a test panel removably mounted in parallel to the top portion of the test cell wherein both the test panel and the top portion of the test cell form an angle of between about 10 to about 45 degrees from the horizontal of the test cell, wherein the bottom portion is parallel to the horizontal of the test cell; (ii) a reservoir for holding the liquid composition; and (iii) a means for applying a substantially uniform coating of the liquid composition from the reservoir to at least a portion of the test panel; (b) a means for heating the test panel according to a first temperature control program; (c) a means for heating the reservoir according to a second temperature control program; and (d) a means for supplying an oxidizing gas to the test cell. (a) a test cell having a top portion and a bottom portion , the test cell comprising (i) a test panel removably mounted in parallel to the top portion of the test cell wherein both the test panel and the top portion of the test cell form an angle of between about 10 to about 45 degrees from the horizontal of the test cell, wherein the bottom portion is parallel to the horizontal of the test cell; (ii) a reservoir for holding the liquid composition; and (iii) a means for applying a substantially uniform coating of the liquid composition from the reservoir to at least a portion of the test panel; (b) a means for heating the test panel according to a first temperature control program; (c) a means for heating the reservoir according to a second temperature control program; and (d) a means for supplying an oxidizing gas to the test cell.
A set of thin foil surfaces configured to achieve a joint among the foil surfaces, the joint being arranged to be without discontinuity, comprising at least a first portion of surface dedicated to achieve the joint; the set of thin foil surfaces being characterized in that it further comprises pixelized type embossings on the first portion of surface ; at least a second portion of surface dedicated to achieve the joint; whereby the second portion of surface is shaped to correspond to the first portion of surface for making the joint between the first portion of surface and the second portion of surface through contact.
A method of operating an image intensifier , the method comprising: providing a voltage at an active level between a photocathode and an input face of a microchannel plate of the image intensifier; detecting a high-acceleration event wherein the high-acceleration event comprises a mechanical shock; and responsive to the high-acceleration event, maintaining the voltage at a protective level for a time span selected to permit acceleration-induced perturbations of the microchannel plate to settle, wherein the protective level provides an inoperative condition of the image intensifier. providing a voltage at an active level between a photocathode and an input face of a microchannel plate of the image intensifier; detecting a high-acceleration event wherein the high-acceleration event comprises a mechanical shock; and responsive to the high-acceleration event, maintaining the voltage at a protective level for a time span selected to permit acceleration-induced perturbations of the microchannel plate to settle, wherein the protective level provides an inoperative condition of the image intensifier.
A tire, comprising a tread comprising a cap tread and a base tread , the tread having a land ratio of 70% or higher, the cap tread having an average loss tangent over 30-100°C of 0.10 or more, the base tread having an average loss tangent over 30-100°C of less than 0.05, wherein tan δ (loss tangent)-temperature curves of samples of cap tread and base tread were measured over a temperature range of 30 to 100°C at a frequency of 10 Hz, an initial strain of 10%, an amplitude of ±0.5%, and a rate of temperature rise of 2°C/min. the tread having a land ratio of 70% or higher, the cap tread having an average loss tangent over 30-100°C of 0.10 or more, the base tread having an average loss tangent over 30-100°C of less than 0.05, wherein tan δ (loss tangent)-temperature curves of samples of cap tread and base tread were measured over a temperature range of 30 to 100°C at a frequency of 10 Hz, an initial strain of 10%, an amplitude of ±0.5%, and a rate of temperature rise of 2°C/min.
Method for data collection by means of a vehicle fleet and a control centre , wherein the control centre produces data acquisition tasks for data collection and transmits at least one of the data acquisition tasks to at least one vehicle in the vehicle fleet , wherein the data acquisition tasks relate to the driving dynamics of the at least one vehicle , state information of the at least one vehicle , fault memory information of the at least one vehicle , maintenance information of the at least one vehicle and/or surroundings information of the at least one vehicle , and wherein the vehicles in the vehicle fleet are identifiable in the control centre by means of vehicle attributes , which are vehicle equipment, a vehicle location, a vehicle property, a vehicle state, a vehicle type, a vehicle priority and/or driver information, wherein the control centre associates each data collection task with an objective which has a list of all vehicle attributes of the vehicles for which the corresponding data collection task is considered and wherein the vehicle attributes of the vehicles , while the vehicles are logged on to the control centre , are compared with the objectives of the data acquisition tasks , after which, in the event of a match between the objective of one of the data acquisition tasks and the vehicle attribute(s) of one of the vehicles , the corresponding data acquisition task is transmitted to the corresponding vehicle , after which, in a subsequent step, a data acquisition apparatus of the respective vehicle acquires task-specific data by using in-vehicle sensors and transmits said data to the control centre , and wherein a server apparatus, consisting of one or more servers, is used as the control centre , wherein the at least one vehicle , after logging on to the control centre , transmits a vehicle-specific identifier to the control centre, after which the control centre reads the vehicle attributes on the basis of the vehicle-specific identifier from a vehicle database of the control centre and then uses them for comparison with the objectives of the data collection tasks .
Multistage pump body, comprising at least: ◆ a first pumping chamber , ◆ a second pumping chamber , ◆ a connecting duct putting an outlet of the first pumping chamber into communication with an inlet of the second pumping chamber , and ◆ a leak-tight conduit for the circulation of a cooling liquid, characterized in that the connecting duct is a lateral duct of the multistage pump body which comprises at least a heat-conducting wall partially delimiting the connecting duct and having an external surface on the outside, at least a portion of the connecting duct passing between this external surface of the heat-conducting wall and the leak-tight conduit . ◆ a first pumping chamber , ◆ a second pumping chamber , ◆ a connecting duct putting an outlet of the first pumping chamber into communication with an inlet of the second pumping chamber , and ◆ a leak-tight conduit for the circulation of a cooling liquid,
A method for producing powders for inhalation, comprising: a first mixing step of stirring a first active ingredient and a carrier in a presence of a first milling medium by means of a stirring device, and mixing the first active ingredient and the carrier while deagglomerating the first active ingredient to obtain a mixture of the carrier and the deagglomerated first active ingredient, wherein the stirring device is a three-dimensional mixer; and a second mixing step of adding fine powders to the mixture obtained in the first mixing step, and stirring and mixing the mixture and the fine powders in a presence of a second milling medium by means of a stirring device, wherein the stirring device is a three-dimensional mixer. a first mixing step of stirring a first active ingredient and a carrier in a presence of a first milling medium by means of a stirring device, and mixing the first active ingredient and the carrier while deagglomerating the first active ingredient to obtain a mixture of the carrier and the deagglomerated first active ingredient, wherein the stirring device is a three-dimensional mixer; and a second mixing step of adding fine powders to the mixture obtained in the first mixing step, and stirring and mixing the mixture and the fine powders in a presence of a second milling medium by means of a stirring device, wherein the stirring device is a three-dimensional mixer.
A door-locking device particularly for electrical household appliances, comprising an electromechanical control device including a locking pin adapted to cooperate with a movable latching slider to lock a door of an electrical household appliance, said locking pin being movable between a rest position, wherein the locking pin allows the latching slider to move, and a lock position, wherein the locking pin prevents said latching slider from moving; characterized in that said electromechanical control device comprises a yoke of magnetically conductive material; a magnet part fixed to the yoke and comprising a permanent magnet polarized in a direction substantially perpendicular to the yoke ; two electromagnets arranged on opposite sides of the magnet part , each electromagnet comprising a core of magnetically conductive material fixed to the yoke , and a solenoid wound to the core ; and a rocking keeper of magnetically conductive material, comprising two arms connected at an angle to each other through a corner portion of the keeper, said corner portion resting on a support surface of the magnet part in such a way that the keeper is able to rock around the corner portion , between a first and a second position in contact with one or the other of the cores of the electromagnets , respectively; wherein the locking pin is connected to one of the arms of the keeper in such a way as to assume the rest position or the lock position when the keeper is in the first position or in the second position, respectively.
A method for receiving a signal by a user equipment, UE, in a wireless communication system, the method comprising: receiving (S2510), from a base station, BS, , downlink control information, DCI, by monitoring a physical downlink control channel, PDCCH; and receiving (S2530, S2630), from the BS , downlink data on an unlicensed band cell, UCell, based on the DCI, wherein based on the UE being configured to monitor the PDCCH on the UCell, the downlink data is received starting in at least one of a first time resource or a second time resource, wherein based on the UE being configured to monitor the PDCCH on another serving cell, the downlink data is received starting in the second time resource and the UE is configured not to expect to be scheduled with the downlink data starting in a first time resource, wherein the first time resource is configured as a first number of orthogonal frequency divisional multiplexing, OFDM, symbols, wherein the second time resource is configured as 14 number of OFDM symbols, and wherein the first number is smaller than 14. receiving (S2510), from a base station, BS, , downlink control information, DCI, by monitoring a physical downlink control channel, PDCCH; and receiving (S2530, S2630), from the BS , downlink data on an unlicensed band cell, UCell, based on the DCI, wherein based on the UE being configured to monitor the PDCCH on the UCell, the downlink data is received starting in at least one of a first time resource or a second time resource, wherein based on the UE being configured to monitor the PDCCH on another serving cell, the downlink data is received starting in the second time resource and the UE is configured not to expect to be scheduled with the downlink data starting in a first time resource, wherein the first time resource is configured as a first number of orthogonal frequency divisional multiplexing, OFDM, symbols, wherein the second time resource is configured as 14 number of OFDM symbols, and wherein the first number is smaller than 14.
A method comprising: receiving positioning-information indicative of position data of a robotic vehicle transiting a parcel at one or more locations on the parcel ; receiving workload-information indicative of workload data of a robotic vehicle transiting the parcel at one or more locations on the parcel ; and generating a virtual map of the parcel based on the positioning-information and the workload-information received, wherein the method is characterized in determining at least one area within the parcel associated with an elevated workload; and scheduling an operational route for working in the parcel based at least in part on the virtual map , wherein the robotic vehicle operates in the at least one elevated workload area only when the robotic vehicle has a battery with a predetermined minimum state of charge. receiving positioning-information indicative of position data of a robotic vehicle transiting a parcel at one or more locations on the parcel ; receiving workload-information indicative of workload data of a robotic vehicle transiting the parcel at one or more locations on the parcel ; and generating a virtual map of the parcel based on the positioning-information and the workload-information received, wherein the method is characterized in determining at least one area within the parcel associated with an elevated workload; and scheduling an operational route for working in the parcel based at least in part on the virtual map , wherein the robotic vehicle operates in the at least one elevated workload area only when the robotic vehicle has a battery with a predetermined minimum state of charge.
An in vitro or ex vivo method of modifying an endogenous target gene in a cell, the method comprising: contacting the cell with a first gRNA molecule, a first enzymatically active Cas9 (eaCas9) molecule, a second gRNA molecule, and a second eaCas9 molecule; wherein the first gRNA molecule and the first eaCas9 molecule associate with the target gene and generate a first single strand break on a first strand of the target gene; wherein the second gRNA molecule and the second eaCas9 molecule associate with the target gene and generate a second single strand break on a second strand of the target gene, thereby forming a double strand break having a first overhang and a second overhang; and wherein the first overhang and the second overhang in the target gene are repaired using an endogenous homologous region, wherein the cell is not contacted with an exogenous nucleic acid homologous to the target gene, thereby modifying the endogenous target gene in the cell, wherein the target gene is an HBB gene; and wherein the cell is a population of cells, and wherein the first overhang and the second overhang in the target gene are repaired by (a) gene conversion in about 12% to about 45% of the cells in the population of cells; or (b) non-homologous end joining (NHEJ) in less than 40% of the cells in the population of cells. , wherein the method does not encompass a process for modifying the germ line genetic identity of human beings. contacting the cell with a first gRNA molecule, a first enzymatically active Cas9 (eaCas9) molecule, a second gRNA molecule, and a second eaCas9 molecule; wherein the first gRNA molecule and the first eaCas9 molecule associate with the target gene and generate a first single strand break on a first strand of the target gene; wherein the second gRNA molecule and the second eaCas9 molecule associate with the target gene and generate a second single strand break on a second strand of the target gene, thereby forming a double strand break having a first overhang and a second overhang; and wherein the first overhang and the second overhang in the target gene are repaired using an endogenous homologous region, wherein the cell is not contacted with an exogenous nucleic acid homologous to the target gene, thereby modifying the endogenous target gene in the cell, wherein the target gene is an HBB gene; and wherein the cell is a population of cells, and wherein the first overhang and the second overhang in the target gene are repaired by (a) gene conversion in about 12% to about 45% of the cells in the population of cells; or (b) non-homologous end joining (NHEJ) in less than 40% of the cells in the population of cells. , wherein the method does not encompass a process for modifying the germ line genetic identity of human beings.