mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device package assembly, comprising: a light emitting device package body; and first, second and third white light emitting devices (120A-120D) on the package body, wherein each of the first, second and third white light emitting devices is a phosphor converted light emitting device, wherein each of the first, second and third white light emitting devices emits light that has a chromaticity point that is within a 10-step MacAdam ellipse of a point on the black body locus, BBL, having a correlated color temperature, CCT, between 2700K and 6500K, and each light has a chromaticity that falls within a respective one of first, second and third non-overlapping chromaticity regions in a two dimensional chromaticity space, wherein the first, second and third chromaticity regions are spaced apart in the two dimensional chromaticity space by respective regions having at least the size of a seven step MacAdam ellipse, and wherein the first and second chromaticity regions comprise white light having a correlated color temperature not greater than 3000K and the third chromaticity region comprises light having a color temperature not less than 3000K. a light emitting device package body; and first, second and third white light emitting devices (120A-120D) on the package body, wherein each of the first, second and third white light emitting devices is a phosphor converted light emitting device, wherein each of the first, second and third white light emitting devices emits light that has a chromaticity point that is within a 10-step MacAdam ellipse of a point on the black body locus, BBL, having a correlated color temperature, CCT, between 2700K and 6500K, and each light has a chromaticity that falls within a respective one of first, second and third non-overlapping chromaticity regions in a two dimensional chromaticity space, wherein the first, second and third chromaticity regions are spaced apart in the two dimensional chromaticity space by respective regions having at least the size of a seven step MacAdam ellipse, and wherein the first and second chromaticity regions comprise white light having a correlated color temperature not greater than 3000K and the third chromaticity region comprises light having a color temperature not less than 3000K.
A navigation system, comprising: a processing resource configured to: receive user schedule data from at least one user device, said user schedule data comprising a location and time of an appointment; obtain destination data representative of a destination location and a desired arrival time from the user schedule data; determine, for each of a plurality of possible routes to the destination location, a reliability measure representative of the expected reliability of the expected travel time for the route; select a route in dependence upon the reliability measures for the plurality of routes and an appointment importance parameter representative of the importance of the appointment; determine an expected travel time to the destination location; and determine a departure time in dependence upon the expected travel time to the destination location; and an output device for providing the departure time to a user. a processing resource configured to: receive user schedule data from at least one user device, said user schedule data comprising a location and time of an appointment; obtain destination data representative of a destination location and a desired arrival time from the user schedule data; determine, for each of a plurality of possible routes to the destination location, a reliability measure representative of the expected reliability of the expected travel time for the route; select a route in dependence upon the reliability measures for the plurality of routes and an appointment importance parameter representative of the importance of the appointment; determine an expected travel time to the destination location; and determine a departure time in dependence upon the expected travel time to the destination location; and receive user schedule data from at least one user device, said user schedule data comprising a location and time of an appointment; obtain destination data representative of a destination location and a desired arrival time from the user schedule data; determine, for each of a plurality of possible routes to the destination location, a reliability measure representative of the expected reliability of the expected travel time for the route; select a route in dependence upon the reliability measures for the plurality of routes and an appointment importance parameter representative of the importance of the appointment; determine an expected travel time to the destination location; and determine a departure time in dependence upon the expected travel time to the destination location; and an output device for providing the departure time to a user.
An occupancy detection system for a lavatory, the occupancy detection system comprising: a door sensor configured to be operatively coupled to a door of the lavatory, wherein the door sensor is configured to output a door sensor signal that indicates a status of the door; one or more presence sensors (118, 120, 122) that are configured to output one or more presence sensor signals that indicate an occupancy status of the lavatory; and an occupancy detection control unit in communication with the door sensor and the one or more presence sensors (118, 120, 122), wherein the occupancy detection control unit is configured to receive the door sensor signal and the one or more presence sensor signal, and wherein the occupancy detection control unit is configured to determine an occupancy status of the lavatory based on the door sensor signal and the one or more presence sensor signals, wherein the occupancy detection control unit determines that the lavatory is unoccupied in response to the door sensor signal indicating that the door is open. a door sensor configured to be operatively coupled to a door of the lavatory, wherein the door sensor is configured to output a door sensor signal that indicates a status of the door; one or more presence sensors (118, 120, 122) that are configured to output one or more presence sensor signals that indicate an occupancy status of the lavatory; and an occupancy detection control unit in communication with the door sensor and the one or more presence sensors (118, 120, 122), wherein the occupancy detection control unit is configured to receive the door sensor signal and the one or more presence sensor signal, and wherein the occupancy detection control unit is configured to determine an occupancy status of the lavatory based on the door sensor signal and the one or more presence sensor signals, wherein the occupancy detection control unit determines that the lavatory is unoccupied in response to the door sensor signal indicating that the door is open.
A portal frame structure for finishing and equipping an opening of an outer wall of a building, the portal frame structure (1; 42; 44; 45) comprising at least a first and a second lateral elongated element (9; 19; 29, 10; 20; 30) and transverse elements (11; 12; 43) integral with the first and the second lateral elongated elements (9; 19; 29, 10; 20; 30), said first and second lateral elongated elements (9; 19; 29, 10; 20; 30) are parallel and each one of the first and the second lateral elongated elements (9; 19; 29, 10; 20; 30) comprising at least one mat (13; 21; 31, 32) made of an insulating and incombustible material selected from mineral wool and fibreglass; and at least one reinforcement panel (14; 22; 33, 34), said reinforcing panel (14; 22; 33, 34) being integral with the mat (13; 21; 31, 32) and extending along the greater part of a main face of the mat (13; 21; 31, 32), characterized in that each one of the first and second elongated elements (9; 19; 29, 10; 20; 30) is made by coupling said mat (13, 21; 31, 32) to one respective reinforcement panel (14; 22; 33; 34) so as to form said lateral elongated element (9; 19; 29, 10; 20; 30) and is assembled to the transverse elements (11; 12; 43) so as to manufacture said portal frame structure (1; 42; 43; 44), wherein the first and the second lateral elongated elements (9; 19; 29, 10; 20; 30) face one another.
A method for monitoring a laser processing operation to be performed on a workpiece, having the following steps: - detecting at least two current measured values by means of at least one sensor that monitors the laser processing operation, - determining at least two current features from the at least two current measured values, the at least two current features jointly representing a current fingerprint in a feature space, - providing a predetermined point set in the feature space, wherein the predetermined point set is defined inside the feature space by means of a learning process, and - classifying the laser processing operation by detecting the position of the current fingerprint relative to the predetermined point set in the feature space, the at least one sensor comprising at least one camera unit that records camera images with different exposure times and processes said camera images with each other using a high dynamic range method in order to provide images with high contrast ratio as current measured values, and wherein the determination of the current features from the current measured values comprises a method for data reduction or dimension reduction such as principal component analysis. - detecting at least two current measured values by means of at least one sensor that monitors the laser processing operation, - determining at least two current features from the at least two current measured values, the at least two current features jointly representing a current fingerprint in a feature space, - providing a predetermined point set in the feature space, wherein the predetermined point set is defined inside the feature space by means of a learning process, and - classifying the laser processing operation by detecting the position of the current fingerprint relative to the predetermined point set in the feature space, the at least one sensor comprising at least one camera unit that records camera images with different exposure times and processes said camera images with each other using a high dynamic range method in order to provide images with high contrast ratio as current measured values, and wherein the determination of the current features from the current measured values comprises a method for data reduction or dimension reduction such as principal component analysis.
A dispersant, comprising a polyurethane having oxamide diol groups, wherein the polyurethane includes a backbone having oxamide pendant groups, wherein the oxamide pendant groups each includes R, wherein and wherein y is 5% to 95% of the sum of y and z, and z is 5% to 95% of the sum of y and z.
A method of provisioning a device, the method comprising: initializing a radio frequency identification ("RFID") device; reading RFID tag data including location data from an RFID tag; inserting the RFID tag data in an option field of a DHCPDISCOVER request; sending the DHCPDISCOVER request to a Dynamic Host Configuration Protocol ("DHCP") server; and provisioning the RFID device according to an appropriate configuration, wherein the provisioning step comprises provisioning the RFID device with a logical name; wherein a location and the logical name of the RFID device are ascertainable based at least in part on the RFID tag data, wherein the appropriate configuration for the RFID device is determinable, based in part on the location of the RFID device. initializing a radio frequency identification ("RFID") device; reading RFID tag data including location data from an RFID tag; inserting the RFID tag data in an option field of a DHCPDISCOVER request; sending the DHCPDISCOVER request to a Dynamic Host Configuration Protocol ("DHCP") server; and provisioning the RFID device according to an appropriate configuration, wherein the provisioning step comprises provisioning the RFID device with a logical name; wherein a location and the logical name of the RFID device are ascertainable based at least in part on the RFID tag data, wherein the appropriate configuration for the RFID device is determinable, based in part on the location of the RFID device.
A motor pump comprising: a combustion engine provided with at least one cooling device; a pump driven by the engine; and at least one delivery device (10, 12) which is in fluid communication with the pump, said cooling device comprising a cooling circuit into which a working fluid flows; wherein said cooling circuit passes into said delivery device (10, 12), so as to cool said working fluid; wherein the pump also comprises at least one suction conduit connectable to a pipe for drawing water from a source or an external tank; the pump being characterized in that said delivery device (10, 12) is connected to said suction conduit via a return channel, and wherein a valve is provided to allow/inhibit the communication between the device and the suction conduit.
A method of freeze drying a moist product provided with a solvent, in particular when the product is held in a number of vials, injection flasks, or product trays, wherein the moist product is introduced into a drying chamber of a freeze drying system in a fluid state in a loading phase, at environmental temperature and/or at environmental pressure, wherein the product is frozen in a freezing phase at freezing temperature and at freezing pressure, and wherein the product is subsequently dried to the desired degree in a drying phase, wherein a degassing phase in which gases are removed from the moist product is disposed upstream of the freezing phase, characterized in that the pressure is lowered to a degassing pressure during the degassing phase while the temperature is held at environmental pressure; or in that the pressure is lowered to a degassing pressure during the degassing phase while a temperature increase takes place; or in that the pressure is lowered to a degassing pressure during the degassing phase while the temperature is held at environmental pressure for so long until the degassing pressure has been reached; and in that the degassing pressure is maintained in the degassing phase; and in that the temperature is held above the freezing temperature of the solvent for so long until the desired degree of degassing has been reached; and in that once the desired degree of degassing has been reached, the degassing phase is ended and a freezing phase is initiated by lowering the pressure and the temperature; and in that the temperature is lowered to the freezing temperature and the pressure is lowered to the freezing pressure in the freezing phase such that the freezing temperature and the freezing pressure are reached at the same time.
A washing machine comprising: an integrated tub/drum configured to hold water, hold laundry, and rotate; a hollow rotary shaft coupled to an end surface of the integrated tub/drum; a water supply pipe and a drain pipe in the integrated tub/drum and through a passage in the hollow rotary shaft; a partition in the integrated tub/drum that is configured to separate the laundry from the water supply pipe and the drain pipe and that includes a plurality of holes; a non-rotating fixed shaft in the passage or opening of the hollow rotary shaft which supports the water supply pipe and the water drain pipe therein; characterized by a drive shaft coupled to an end surface of the integrated tub/drum other than the surface through which the hollow rotary shaft passes; and a drive motor configured to rotate the drive shaft, wherein the drive motor and the drive shaft are directly connected. an integrated tub/drum configured to hold water, hold laundry, and rotate; a hollow rotary shaft coupled to an end surface of the integrated tub/drum; a water supply pipe and a drain pipe in the integrated tub/drum and through a passage in the hollow rotary shaft; a partition in the integrated tub/drum that is configured to separate the laundry from the water supply pipe and the drain pipe and that includes a plurality of holes; a non-rotating fixed shaft in the passage or opening of the hollow rotary shaft which supports the water supply pipe and the water drain pipe therein; characterized by a drive shaft coupled to an end surface of the integrated tub/drum other than the surface through which the hollow rotary shaft passes; and a drive motor configured to rotate the drive shaft, wherein the drive motor and the drive shaft are directly connected.
A bolt adjustment device comprising a body and an attachment point, in which the body extends in a longitudinal direction from a first end to a second end, the body comprising a cavity extending into the body in the longitudinal direction from the first end, the cavity being configured and arranged to accommodate a thread during use of the bolt adjustment device and a step in the cavity at the first end, the step being configured and arranged to engage with a nut when in use; in which a torque can be imparted on the attachment point to impart a torque to the bolt adjustment device; characterized by a clamping mechanism attached to the attachment point such that the clamping mechanism clamps said nut in the cavity when a torque is imparted on the clamping device.
A method performed by an X2 gateway apparatus in a communication system comprising the X2 gateway apparatus and a plurality of base stations (5, 7-1 to 7-3), the method comprising: maintaining, for each base station (5, 7-1 to 7-3) connected to the X2 gateway apparatus, respective association information indicating a mapping of an identifier for that base station (5, 7-1 to 7-3) to at least one Transport Network Layer, TNL, address for that base station (5, 7-1 to 7-3); receiving, from a source base station, when the source base station's TNL address changes, an X2 message to initiate registration with the X2 gateway apparatus, the X2 message comprising an identifier for said source base station, wherein said identifier comprises an information element based on an E-UTRAN Cell Global Identifier, ECGI, of said source base station; and updating said association information, based on information included in said X2 message to initiate registration, to reflect a mapping to at least one TNL address of the base station from which the X2 message to initiate registration originated. maintaining, for each base station (5, 7-1 to 7-3) connected to the X2 gateway apparatus, respective association information indicating a mapping of an identifier for that base station (5, 7-1 to 7-3) to at least one Transport Network Layer, TNL, address for that base station (5, 7-1 to 7-3); receiving, from a source base station, when the source base station's TNL address changes, an X2 message to initiate registration with the X2 gateway apparatus, the X2 message comprising an identifier for said source base station, wherein said identifier comprises an information element based on an E-UTRAN Cell Global Identifier, ECGI, of said source base station; and updating said association information, based on information included in said X2 message to initiate registration, to reflect a mapping to at least one TNL address of the base station from which the X2 message to initiate registration originated.
Back-mounted sprayer, comprising a back frame on which a blower unit and a spray medium container are located, wherein the back frame comprises a back plate which is located adjacent to the back of an operator in operation, wherein the blower unit comprises means for conveying an air stream through a blow pipe located on the blower unit, and wherein means for supplying spray medium from the spray medium container into the air stream are provided, wherein the spray medium container has a filler hole closed by a cover, wherein the cover has a bottom edge facing the spray medium container, wherein the sprayer has a parking position in which the sprayer stands on a level, horizontal parking surface and the cover is situated on a top side of the spray medium container remote from the parking surface, the spray medium container being located above the blower unit in the parking position, characterised in that the height (b) of the back frame, as measured perpendicular to the parking surface, amounts to at least approximately 80% of the overall height (a) of the sprayer, as measured perpendicular to the parking surface, and in that in the parking position at least one region of the back plate lies at a higher level than at least one region of the bottom edge of the cover.
A high-voltage semiconductor device, comprising: a semiconductor substrate having a first conductivity type; a first doping region having a second conductivity type in the semiconductor substrate; an epitaxial layer on the semiconductor substrate; a body region having the first conductivity type in the epitaxial layer on the first doping region; a second doping region and a third doping region that have the second conductivity type, respectively in the epitaxial layer on both opposite sides of the body region, so as to adjoin the body region; a source region and a drain region respectively in the body region and the second doping region; a field insulating layer in the second doping region between the source region and the drain region; and a gate structure on the epitaxial layer to cover a portion of the field insulating layer, characterized by the first doping region, the second region and the third doping region having a doping concentration in a range of 1.0×10 15 to 1.0×10 16 ions/cm 3; and a buried layer having the second conductivity type in the first doping region below the body region, so that the bottom of the body region adjoins the upper surface of the buried layer, wherein the buried layer has a doping concentration of 1.0×10 18 ions/cm 3. a semiconductor substrate having a first conductivity type; a first doping region having a second conductivity type in the semiconductor substrate; an epitaxial layer on the semiconductor substrate; a body region having the first conductivity type in the epitaxial layer on the first doping region; a second doping region and a third doping region that have the second conductivity type, respectively in the epitaxial layer on both opposite sides of the body region, so as to adjoin the body region; a source region and a drain region respectively in the body region and the second doping region; a field insulating layer in the second doping region between the source region and the drain region; and a gate structure on the epitaxial layer to cover a portion of the field insulating layer, characterized by the first doping region, the second region and the third doping region having a doping concentration in a range of 1.0×10 15 to 1.0×10 16 ions/cm 3; and a buried layer having the second conductivity type in the first doping region below the body region, so that the bottom of the body region adjoins the upper surface of the buried layer, wherein the buried layer has a doping concentration of 1.0×10 18 ions/cm 3.