mhurhangee/ep-ind-claims huggingface dataset:
An electronic access control device for controlling data access to Heating, Ventilating and Air Conditioning HVAC devices of an HVAC system, the electronic access control device comprising a plurality of electronic communication circuits and a processor connected to the electronic communication circuits, wherein at least one of the electronic communication circuits is configured to communicate via a first communication link with an external computing device, separate from the HVAC system; at least one of the electronic communication circuits is configured to communicate with one or more of the HVAC devices via a second communication link; and the processor is configured to receive from the external computing device via the first communication link a data request directed to a particular one of the HVAC devices, check authorization of the data request for the particular one of the HVAC devices, upon affirmative authorization of the data request, forward the data request via the second communication link to the particular one of the HVAC devices, receive via the second communication link a data content from the particular one of the HVAC devices, generate a data response, using the data content, and transmit the data response via the first communication link to the external computing device. wherein at least one of the electronic communication circuits is configured to communicate via a first communication link with an external computing device, separate from the HVAC system; at least one of the electronic communication circuits is configured to communicate with one or more of the HVAC devices via a second communication link; and the processor is configured to receive from the external computing device via the first communication link a data request directed to a particular one of the HVAC devices, check authorization of the data request for the particular one of the HVAC devices, upon affirmative authorization of the data request, forward the data request via the second communication link to the particular one of the HVAC devices, receive via the second communication link a data content from the particular one of the HVAC devices, generate a data response, using the data content, and transmit the data response via the first communication link to the external computing device. receive from the external computing device via the first communication link a data request directed to a particular one of the HVAC devices, check authorization of the data request for the particular one of the HVAC devices, upon affirmative authorization of the data request, forward the data request via the second communication link to the particular one of the HVAC devices, receive via the second communication link a data content from the particular one of the HVAC devices, generate a data response, using the data content, and transmit the data response via the first communication link to the external computing device.
Pressure measurement apparatus for an engine, the pressure measurement apparatus comprising: a low pressure Exhaust Gas Recirculation valve of an engine; and a differential pressure sensor having a sensor body defining first and second pressure ports (113A, 113B), characterised in that the sensor body is mounted directly to the EGR valve, over an opening in the wall of the EGR valve such that the first pressure port extends at least partially through the opening in the wall of the EGR valve into the gas flow path so that the first pressure port terminates inside the EGR valve and the second pressure port terminates outside of the EGR valve in an assembled configuration. a low pressure Exhaust Gas Recirculation valve of an engine; and a differential pressure sensor having a sensor body defining first and second pressure ports (113A, 113B), characterised in that the sensor body is mounted directly to the EGR valve, over an opening in the wall of the EGR valve such that the first pressure port extends at least partially through the opening in the wall of the EGR valve into the gas flow path so that the first pressure port terminates inside the EGR valve and the second pressure port terminates outside of the EGR valve in an assembled configuration.
A DC power distribution system for distributing DC power, the system comprising: - a track for distributing DC power, wherein the track is adapted to provide a power line communication, - a power supply, for supplying DC power to the track, comprising a communication signal transceiver for receiving and sending communication signals and configured to modulate and demodulate the communication signals in order to transform power line communication commands into commands which are executable by the power supply, and for generating power line communication commands to be sent via the power line communication, - a luminaire (9, 10), attached to the track for receiving DC power, comprising a further communication signal transceiver and a light source, the light source comprising a driver circuit for controlling a characteristic of the light and which can be controlled depending on control signals received and demodulated by the further communication signal transceiver, - a communication device attached to the track and adapted to be powered by the DC power distributed via the track, whereby the communication device is adapted to a) wirelessly receive communication signals and transmit the received communication signals via the power line communication to the power supply and/or the luminaire (9, 10), and b) receive communication signals via the power line communication from the power supply and/or the luminaire (9, 10) and wirelessly transmit the received communication signals. - a track for distributing DC power, wherein the track is adapted to provide a power line communication, - a power supply, for supplying DC power to the track, comprising a communication signal transceiver for receiving and sending communication signals and configured to modulate and demodulate the communication signals in order to transform power line communication commands into commands which are executable by the power supply, and for generating power line communication commands to be sent via the power line communication, - a luminaire (9, 10), attached to the track for receiving DC power, comprising a further communication signal transceiver and a light source, the light source comprising a driver circuit for controlling a characteristic of the light and which can be controlled depending on control signals received and demodulated by the further communication signal transceiver, - a communication device attached to the track and adapted to be powered by the DC power distributed via the track,
A method comprising: determining, above a breast support, a biopsy volume encompassing a zone of interest in a body, imaging, on a detector, at least part of said body, to localize said zone of interest within said biopsy volume, wherein said determining includes variable positioning, in the plane of said breast support, of said biopsy volume by movement of a paddle parallel to the plane of the breast support, wherein said variable positioning includes two translations (X and Y) parallel to the plane of said breast support which are orthogonal to each other, wherein the X translation is parallel to a chest wall of the breast support and is continuous, and wherein the Y translation is perpendicular to the chest wall of the breast support and is discrete. determining, above a breast support, a biopsy volume encompassing a zone of interest in a body, imaging, on a detector, at least part of said body, to localize said zone of interest within said biopsy volume, wherein said determining includes variable positioning, in the plane of said breast support, of said biopsy volume by movement of a paddle parallel to the plane of the breast support, wherein said variable positioning includes two translations (X and Y) parallel to the plane of said breast support which are orthogonal to each other, wherein the X translation is parallel to a chest wall of the breast support and is continuous, and wherein the Y translation is perpendicular to the chest wall of the breast support and is discrete.
Plug connector which has a contact support that is injection molded from plastic and has contact chambers for receiving a contact partner in each case, wherein furthermore provided is a sealing element which acts on in each case an outer sheath of at least one cable, which is guided out of the plug connector and the end of the electrical conductor of which is connected to the associated contact partner, wherein the sealing element is formed together with the contact support from plastic processed in an injection molding process, characterized in that the sealing element is injection molded directly on the contact support at at least one predetermined breaking point, preferably exactly two predetermined breaking points.
A communications device which communicates with a communications node, the communications device comprising: means for receiving, from the communications node, downlink control information comprising a resource indication value for indicating a resource allocation, and for decoding data which corresponds to the downlink control information comprising the resource indication value, wherein the resource indication value is defined by either a first expression or a second expression, wherein the first expression is N(P-1)+O or wherein the second expression is N(N-(P-1))+(N-1-O) where N is a number of resource blocks in a bandwidth, O is a starting resource block number and P is a length in terms of number of consecutive resource blocks. means for receiving, from the communications node, downlink control information comprising a resource indication value for indicating a resource allocation, and for decoding data which corresponds to the downlink control information comprising the resource indication value, wherein the resource indication value is defined by either a first expression or a second expression, wherein the first expression is N(P-1)+O or wherein the second expression is N(N-(P-1))+(N-1-O)
A recombinant adeno-associated virus expression vector comprising a human GFAP promoter sequence operably linked to a nucleic acid encoding NeuroD1 for use in a method for decreasing neuroinflammation after a stroke in a subject in need thereof, wherein the decrease in neuroinflammation comprises a downregulation in at least one pro-inflammatory factor selected from the group consisting of interferon y, TNFα, interleukin 1β, and interleukin 6, and wherein the AAV expression vector is administered to the central nervous system of the subject.
A method for monitoring the temperature of a survey surface in a room, such method comprising: a) providing a number, N, of temperature sensors (S(i)) coupled to the survey surface; b) receiving from said number of temperature sensors (S(i)) respective temperature values (Ts(i, k*)); characterized in that it further comprises: c) applying an extrapolation model to said received temperature values (Ts(i, k*)) and extrapolating an extrapolated thermographic scan (Sc*(i), Sc*(p, q)) of the survey surface; and d) monitoring the temperature of the survey surface on the basis of said extrapolated thermographic scan (Sc*(i), Sc*(p, q)). a) providing a number, N, of temperature sensors (S(i)) coupled to the survey surface; b) receiving from said number of temperature sensors (S(i)) respective temperature values (Ts(i, k*)); characterized in that it further comprises: c) applying an extrapolation model to said received temperature values (Ts(i, k*)) and extrapolating an extrapolated thermographic scan (Sc*(i), Sc*(p, q)) of the survey surface; and d) monitoring the temperature of the survey surface on the basis of said extrapolated thermographic scan (Sc*(i), Sc*(p, q)).
A time calibration method comprising: a mobile terminal determining local time where the mobile terminal is located according to time data in a received Global Positioning System, GPS, navigation message and time zone information about the mobile terminal; and the mobile terminal performing time calibration on itself according to the local time where it is located; the mobile terminal determining the local time where the mobile terminal is located according to the time data in the received GPS navigation message and time zone information about the mobile terminal comprises: the mobile terminal parsing the time data and obtaining local Universal Time Coordinated, UTC, time of the mobile terminal; and the mobile terminal determining the local time where the mobile terminal is located according to the local UTC time and the time zone information about the mobile terminal; characterised in that the mobile terminal parsing the time data and obtaining the local UTC time of the mobile terminal comprises: the mobile terminal parsing the time data and obtaining a Handover Word, HOW, of each subframe; the mobile terminal reading Time Of Week, TOW, in the HOW, wherein the TOW records UTC, microsecond number of sending time of the subframe; and the mobile terminal calculating a UTC timestamp of the sending time of each subframe by combining the UTC microsecond number and the week number contained in a first subframe which is in a frame where the subframe is located. a mobile terminal determining local time where the mobile terminal is located according to time data in a received Global Positioning System, GPS, navigation message and time zone information about the mobile terminal; and the mobile terminal performing time calibration on itself according to the local time where it is located; the mobile terminal determining the local time where the mobile terminal is located according to the time data in the received GPS navigation message and time zone information about the mobile terminal comprises: the mobile terminal parsing the time data and obtaining local Universal Time Coordinated, UTC, time of the mobile terminal; and the mobile terminal determining the local time where the mobile terminal is located according to the local UTC time and the time zone information about the mobile terminal; characterised in that the mobile terminal parsing the time data and obtaining the local UTC time of the mobile terminal comprises: the mobile terminal parsing the time data and obtaining a Handover Word, HOW, of each subframe; the mobile terminal reading Time Of Week, TOW, in the HOW, wherein the TOW records UTC, microsecond number of sending time of the subframe; and the mobile terminal calculating a UTC timestamp of the sending time of each subframe by combining the UTC microsecond number and the week number contained in a first subframe which is in a frame where the subframe is located.
A method of joining titanium, or a titanium-based alloy (100; 210), to a ferrous metal (200; 610) to produce a strong ductile weld, comprising the steps of: a) providing tantalum at a joint precursor; b) providing a ferrous metal coil (200; 610) extending from a proximal coil end to a distal coil end, along a longitudinal axis and placing the proximal coil end of the ferrous metal in close proximity to the joint precursor; c) providing at least one titanium or titanium-based alloy workpiece (100; 210) extending from a titanium workpiece proximal end to a titanium workpiece distal end along said longitudinal axis, and placing the proximal end of the at least one titanium or titanium-based alloy workpiece (100; 210) in close proximity to the joint precursor, d) wherein, with respect to the longitudinal axis, the titanium or titanium-based alloy workpiece (100; 210) resides radially inside the ferrous metal coil (200; 610); e) fusion welding the tantalum joint precursor thereby producing a weld pool (600; 810) incorporating the proximal end of the at least one titanium, or titanium-based alloy workpiece (100; 210), and the proximal end of the ferrous metal coil (200; 610), and at least a portion of the tantalum; and f) permitting the weld pool (600; 810) to cool and form a weld connected to the titanium or titanium-based alloy workpiece (100; 210) and the ferrous metal coil (200; 610). a) providing tantalum at a joint precursor; b) providing a ferrous metal coil (200; 610) extending from a proximal coil end to a distal coil end, along a longitudinal axis and placing the proximal coil end of the ferrous metal in close proximity to the joint precursor; c) providing at least one titanium or titanium-based alloy workpiece (100; 210) extending from a titanium workpiece proximal end to a titanium workpiece distal end along said longitudinal axis, and placing the proximal end of the at least one titanium or titanium-based alloy workpiece (100; 210) in close proximity to the joint precursor, d) wherein, with respect to the longitudinal axis, the titanium or titanium-based alloy workpiece (100; 210) resides radially inside the ferrous metal coil (200; 610); e) fusion welding the tantalum joint precursor thereby producing a weld pool (600; 810) incorporating the proximal end of the at least one titanium, or titanium-based alloy workpiece (100; 210), and the proximal end of the ferrous metal coil (200; 610), and at least a portion of the tantalum; and f) permitting the weld pool (600; 810) to cool and form a weld connected to the titanium or titanium-based alloy workpiece (100; 210) and the ferrous metal coil (200; 610).
A complementary metal oxide semiconductor, CMOS, device including a plurality of p-type metal oxide semiconductor, PMOS, transistors each having a PMOS drain and a plurality of n-type metal oxide semiconductor, NMOS, transistors each having an NMOS drain, comprising: a first interconnect on an interconnect level connecting a first plurality of the PMOS drains together; a second interconnect on the interconnect level connecting a second plurality of the PMOS drains together, the second plurality of the PMOS drains being different than the first plurality of the PMOS drains, the first interconnect and the second interconnect being disconnected on the interconnect level; a third interconnect on the interconnect level connecting a first plurality of the NMOS drains together; and a fourth interconnect on the interconnect level connecting a second plurality of the NMOS drains together, the second plurality of the NMOS drains being different than the first plurality of the NMOS drains, the third interconnect and the fourth interconnect being disconnected on the interconnect level, wherein the first interconnect, the second interconnect, the third interconnect, and the fourth interconnect are coupled together though at least one other interconnect level. a first interconnect on an interconnect level connecting a first plurality of the PMOS drains together; a second interconnect on the interconnect level connecting a second plurality of the PMOS drains together, the second plurality of the PMOS drains being different than the first plurality of the PMOS drains, the first interconnect and the second interconnect being disconnected on the interconnect level; a third interconnect on the interconnect level connecting a first plurality of the NMOS drains together; and a fourth interconnect on the interconnect level connecting a second plurality of the NMOS drains together, the second plurality of the NMOS drains being different than the first plurality of the NMOS drains, the third interconnect and the fourth interconnect being disconnected on the interconnect level, wherein the first interconnect, the second interconnect, the third interconnect, and the fourth interconnect are coupled together though at least one other interconnect level.
A method of collecting digital image data associated with a subject of interest, the method comprising: determining that the subject of interest is sparsely represented in a composite representation of the subject in a database, based on the determining that the subject of interest is sparsely represented in the composite representation in the database: receiving, at an image collection server remotely located from the subject of interest, location data for a camera-equipped mobile communication device (110, 700) in visual proximity to the subject of interest; and determining, at the image collection server, whether the location data corresponds to a desired view of the subject of interest; responsive to said determining: sending an image capture request comprising the position instruction from the image collection server to the mobile communication device (110, 700); and receiving, at the image collection server, digital image data from the mobile communication device (110, 700) in response to the image capture request, augmenting a sparse region of the composite representation of the subject of interest using the digital image data. determining that the subject of interest is sparsely represented in a composite representation of the subject in a database, based on the determining that the subject of interest is sparsely represented in the composite representation in the database: receiving, at an image collection server remotely located from the subject of interest, location data for a camera-equipped mobile communication device (110, 700) in visual proximity to the subject of interest; and determining, at the image collection server, whether the location data corresponds to a desired view of the subject of interest; responsive to said determining: sending an image capture request comprising the position instruction from the image collection server to the mobile communication device (110, 700); and receiving, at the image collection server, digital image data from the mobile communication device (110, 700) in response to the image capture request, augmenting a sparse region of the composite representation of the subject of interest using the digital image data. receiving, at an image collection server remotely located from the subject of interest, location data for a camera-equipped mobile communication device (110, 700) in visual proximity to the subject of interest; and determining, at the image collection server, whether the location data corresponds to a desired view of the subject of interest; responsive to said determining: sending an image capture request comprising the position instruction from the image collection server to the mobile communication device (110, 700); and receiving, at the image collection server, digital image data from the mobile communication device (110, 700) in response to the image capture request, augmenting a sparse region of the composite representation of the subject of interest using the digital image data.