mhurhangee/ep-ind-claims huggingface dataset:
A method of ordering a list of discovered devices in a wireless personal area network (WPAN), comprising: receiving at a searching device a plurality of wireless device signals from devices in the WPAN (165, 170, 175, 180, 185, 190); receiving a device class for each of the devices in the WPAN based on the wireless device signals; determining a plurality of received signal strength indications corresponding to the wireless device signals; displaying, on a user interface of the searching device, a list of devices, each device in the list corresponding to a device from which a wireless device signal was received, wherein the devices in the list are ordered according to the received signal strength indications of the corresponding devices, and wherein each device in the list is displayed with a respective device descriptor corresponding to the class of the device and a respective icon which graphically represents the device descriptor. receiving at a searching device a plurality of wireless device signals from devices in the WPAN (165, 170, 175, 180, 185, 190); receiving a device class for each of the devices in the WPAN based on the wireless device signals; determining a plurality of received signal strength indications corresponding to the wireless device signals; displaying, on a user interface of the searching device, a list of devices, each device in the list corresponding to a device from which a wireless device signal was received, wherein the devices in the list are ordered according to the received signal strength indications of the corresponding devices, and wherein each device in the list is displayed with a respective device descriptor corresponding to the class of the device and a respective icon which graphically represents the device descriptor.
Carbon dioxide conversion process: • whereby carbon dioxide and water are supplied to an electrocatalytic unit containing at least one cell comprising a cathode chamber and an anode chamber, • whereby a C1 or C2 target compound selected from the group consisting of methanol, ethanol and ethylene, is produced in the cathode chamber with a Faradaic Efficiency of at least 45%, said target compound being evacuated from the cathode chamber in a first product stream consisting of (i) water, (ii) the target compound and (iii) a mixture containing at least unconverted carbon dioxide and hydrogen, • whereby oxygen is produced in the anode chamber, said oxygen being evacuated from the anode chamber as part of a second product stream, • whereby target compound is extracted from the evacuated first product stream and a depleted first stream is thereby obtained, • whereby, at least a first part of the mixture of the depleted first stream and a first part of the oxygen of the second product stream are fed to a combustor wherein said first part of the mixture of the depleted first stream is combusted using at least said first part of the oxygen as a combustion oxidant, thereby generating thermal energy and fumes consisting for at least 98 %vol of carbon dioxide and water, • whereby thermal energy generated in the combustor is recovered and • whereby at least part and preferably all of the carbon dioxide from the fumes is fed to the electrocatalytic unit. • whereby carbon dioxide and water are supplied to an electrocatalytic unit containing at least one cell comprising a cathode chamber and an anode chamber, • whereby a C1 or C2 target compound selected from the group consisting of methanol, ethanol and ethylene, is produced in the cathode chamber with a Faradaic Efficiency of at least 45%, said target compound being evacuated from the cathode chamber in a first product stream consisting of (i) water, (ii) the target compound and (iii) a mixture containing at least unconverted carbon dioxide and hydrogen, • whereby oxygen is produced in the anode chamber, said oxygen being evacuated from the anode chamber as part of a second product stream, • whereby target compound is extracted from the evacuated first product stream and a depleted first stream is thereby obtained, • whereby, at least a first part of the mixture of the depleted first stream and a first part of the oxygen of the second product stream are fed to a combustor wherein said first part of the mixture of the depleted first stream is combusted using at least said first part of the oxygen as a combustion oxidant, thereby generating thermal energy and fumes consisting for at least 98 %vol of carbon dioxide and water, • whereby thermal energy generated in the combustor is recovered and • whereby at least part and preferably all of the carbon dioxide from the fumes is fed to the electrocatalytic unit.
A method for selecting a Modulation and Coding Selection, MCS, level by a base station in a wireless mobile communication system, the method comprising: receiving a signal periodically from a terminal; measuring the intensity of the signal; determining a location of the terminal based on the measured intensity; determining a moving direction of the terminal based on a change of the measured intensity; determining a moving velocity of the terminal based on a velocity at which the measured intensity increases or decreases; and selecting an MCS level that is to be allocated to the terminal based on the location, the moving direction, and the moving velocity of the terminal. receiving a signal periodically from a terminal; measuring the intensity of the signal; determining a location of the terminal based on the measured intensity; determining a moving direction of the terminal based on a change of the measured intensity; determining a moving velocity of the terminal based on a velocity at which the measured intensity increases or decreases; and selecting an MCS level that is to be allocated to the terminal based on the location, the moving direction, and the moving velocity of the terminal.
A vacuum heat insulation structure for a heating furnace, the vacuum heat insulation structure comprising: a heating space covered by an inner wall; an outer wall configured to cover the inner wall; a vacuum space formed between the inner wall and the outer wall; a reflective film disposed in the vacuum space and configured to prevent transfer of radiant heat from the inner wall to the outer wall in the vacuum space; characterised by a fixing tool (10; 40; 50; 60) configured to fix the reflective film to an inner surface of the outer wall so as not to come in contact with an outer surface of the inner wall; wherein the fixing tool (10; 40; 50; 60) is configured to bias the reflective film to the inner surface of the outer wall. a heating space covered by an inner wall; an outer wall configured to cover the inner wall; a vacuum space formed between the inner wall and the outer wall; a reflective film disposed in the vacuum space and configured to prevent transfer of radiant heat from the inner wall to the outer wall in the vacuum space; characterised by a fixing tool (10; 40; 50; 60) configured to fix the reflective film to an inner surface of the outer wall so as not to come in contact with an outer surface of the inner wall; wherein the fixing tool (10; 40; 50; 60) is configured to bias the reflective film to the inner surface of the outer wall.
Bathtub comprising a splash guard wall, wherein at least one side surface of the bathtub is at least partially covered with a skirt and the skirt extends in height up to a region of a bathtub rim of the bathtub, characterized in that a retaining profile is arranged on the bathtub and the retaining profile holds the splash guard wall and in that the splash guard wall and the skirt form a flush outer wall, wherein the outer wall laterally adjoins the bathtub rim and at least partially overlaps the bathtub rim and extends a certain height above the bathtub rim and a certain height below the bathtub rim.
A loudspeaker system having a first panel-like component (1; 101), which has at least one loudspeaker, a second panel-like component (2; 102), which is fixed pivotally to the first component (1; 101) about a first pivot axis, wherein the system has at least one third component (5; 105), which is fixed pivotally to the second component (2; 102) about a second pivot axis, wherein the pivot axes (12, 13) are each arranged on side edges of the components (1, 2, 5; 101, 102, 105), wherein the first component (1; 101), the second component (2; 102) and the third component (5; 105; 205) can be moved from a flat-lying state, in which the first, second and third components (1, 2, 5; 101, 102, 105) are aligned parallel to one another, into a raised state, in which the first, second and third components (1, 2, 5; 101, 102, 105) in each instance form an acute, right or obtuse angle relative to one another, and wherein the shapes of the components (1, 2, 5; 101, 102, 105) and the arrangement of the pivot axes (12, 13) are selected such that the components (1, 2, 5; 101, 102, 105), in the raised state, always lie with one of their side edges in one plane, wherein the components (1, 2, 5; 101, 102, 105) and the plane jointly define a volume, which is open on the side opposite the third component (5; 105), characterized in that the at least one loudspeaker of the first component (1; 101; 201) is arranged on a side edge of the first component (1; 101; 201) and that the side edge of the first component (1; 101; 201) with the loudspeaker has a beveled edge or rounding such that an opening of the loudspeaker is directed into the interior of the volume.
A communication system for a wireless message transfer between an implantable medical device, IMD, and an external device, the communication system comprising the IMD and the external device, wherein the IMD is configured to monitor the health status of a patient and/or configured to deliver a therapy signal to the patient, wherein the IMD comprises a processor, a memory module and a transceiver module configured to bi-directionally exchange the messages with the external device, wherein the external device is configured to send a predefined wake-up signal to the transceiver module of the IMD combined with an ID request message following the wake-up signal within a predefined first time interval (T1A), wherein the ID request message contains one of a predefined set of predefined different request specifications, wherein the processor of the IMD is configured to produce an ID response message to the previously received ID request message and to send this ID response message from the transceiver module to the external device within a time slot after the receipt of this ID request message, wherein the ID response message comprises an ID information read from a predefined memory address of the memory module, wherein the section of the memory is determined by the processor based on the request specification sent by the previously received ID request message and the time slot (S1, S2, S3, S4, S5, S6, S7, S8) is determined by the processor based on the ID information read from the determined section of the memory. wherein the external device is configured to send a predefined wake-up signal to the transceiver module of the IMD combined with an ID request message following the wake-up signal within a predefined first time interval (T1A), wherein the ID request message contains one of a predefined set of predefined different request specifications, wherein the processor of the IMD is configured to produce an ID response message to the previously received ID request message and to send this ID response message from the transceiver module to the external device within a time slot after the receipt of this ID request message, wherein the ID response message comprises an ID information read from a predefined memory address of the memory module, wherein the section of the memory is determined by the processor based on the request specification sent by the previously received ID request message and the time slot (S1, S2, S3, S4, S5, S6, S7, S8) is determined by the processor based on the ID information read from the determined section of the memory.
Process for determining surface contamination of polycrystalline silicon, comprising the steps of a) providing two polycrystalline silicon rods by deposition in a Siemens reactor; b) determining contamination with carbon and dopants in the first of the two rods immediately after the deposition, wherein a wafer is removed from said rod and used to determine the carbon concentration by means of FTIR, wherein a rod remaining after removal of the wafer from said rod is converted by means of FZ to a monocrystalline rod, and the concentration of dopants is determined by means of photoluminescence on a wafer removed from the monocrystalline rod; c) conducting the second rod through one or more systems in which polycrystalline silicon rods are processed further to give rod pieces or polysilicon fragments, optionally cleaned, stored or packed; d) then determining contamination with carbon and dopants in the second rod, wherein the rod is converted by means of FZ to a monocrystalline rod, a first wafer is removed from this monocrystalline rod and sent to an FTIR analysis for determination of the carbon concentration, and a second wafer is removed and sent to a photoluminescence analysis for determination of the concentration of dopants; wherein the difference in the contamination with carbon and dopants determined in the first and second rods gives surface contamination with carbon and dopants of polycrystalline silicon resulting from systems and the system environment. a) providing two polycrystalline silicon rods by deposition in a Siemens reactor; b) determining contamination with carbon and dopants in the first of the two rods immediately after the deposition, wherein a wafer is removed from said rod and used to determine the carbon concentration by means of FTIR, wherein a rod remaining after removal of the wafer from said rod is converted by means of FZ to a monocrystalline rod, and the concentration of dopants is determined by means of photoluminescence on a wafer removed from the monocrystalline rod; c) conducting the second rod through one or more systems in which polycrystalline silicon rods are processed further to give rod pieces or polysilicon fragments, optionally cleaned, stored or packed; d) then determining contamination with carbon and dopants in the second rod, wherein the rod is converted by means of FZ to a monocrystalline rod, a first wafer is removed from this monocrystalline rod and sent to an FTIR analysis for determination of the carbon concentration, and a second wafer is removed and sent to a photoluminescence analysis for determination of the concentration of dopants; wherein the difference in the contamination with carbon and dopants determined in the first and second rods gives surface contamination with carbon and dopants of polycrystalline silicon resulting from systems and the system environment.
A method comprising: calculating, based on data received from a first access point on a wireless network within a communication range of an identified client device, a first effective uplink data rate for the client device with respect to the first access point based on a) an uplink data rate for the first access point and b) a percentage of uplink airtime available to the client device via the first access point based on a number of devices connected to the first access point; calculating, based on data received from the first access point, a first effective downlink data rate for the client device with respect to the first access point based on a) a downlink data rate for the first access point and b) a percentage of downlink airtime available to the client device via the first access point based on the number of devices connected to the first access point, wherein the downlink data rate for the first access point is estimated based on a signal to noise ratio with respect to the first access point; computing a first metric for the first access point based on the first effective uplink data rate, the first effective downlink data rate, and a noise floor scaling factor; and characterised by generating a recommendation for access point connection by the client device based on a comparison of the first metric for the first access point and a second metric computed for a second access point, wherein the client device is associated with the second access point and wherein the second metric is an artificially inflated indication of a current load of the second access point. calculating, based on data received from a first access point on a wireless network within a communication range of an identified client device, a first effective uplink data rate for the client device with respect to the first access point based on a) an uplink data rate for the first access point and b) a percentage of uplink airtime available to the client device via the first access point based on a number of devices connected to the first access point; calculating, based on data received from the first access point, a first effective downlink data rate for the client device with respect to the first access point based on a) a downlink data rate for the first access point and b) a percentage of downlink airtime available to the client device via the first access point based on the number of devices connected to the first access point, wherein the downlink data rate for the first access point is estimated based on a signal to noise ratio with respect to the first access point; computing a first metric for the first access point based on the first effective uplink data rate, the first effective downlink data rate, and a noise floor scaling factor; and characterised by generating a recommendation for access point connection by the client device based on a comparison of the first metric for the first access point and a second metric computed for a second access point, wherein the client device is associated with the second access point and wherein the second metric is an artificially inflated indication of a current load of the second access point.
Hydrocarbon-based polymer comprising two alkoxysilane end groups, said hydrocarbon-based polymer being of formula: in which: - each carbon-carbon bond of the chain noted as is a double bond or a single bond, in accordance with the valency rules of organic chemistry; - the groups R 2, R 3, R 4 and R 5 are each, independently of the other groups or otherwise, a hydrogen, a halo group, an alkoxycarbonyl group or an alkyl group, the groups R 2 to R 5 possibly being linked together as members of the same saturated or unsaturated ring or heterocycle, - m and p are integers each within a range from 0 to 5, preferably from 0 to 2, and even more preferably m and p are both equal to 1, the sum m + p itself being within a range from 0 to 10, preferably from 0 to 6, - R and R', which may be identical or different, each represent a linear or branched, preferably linear, alkyl group comprising from 1 to 4 and preferably from 1 to 2 carbon atoms, - Z is a divalent group chosen from alkylene groups, optionally interrupted with an ester function, and comprising from 1 to 22 and preferably from 1 to 6 carbon atoms, - q is an integer equal to 0 or 1, - r is an integer equal to 0, 1 or 2, and - n is an integer such that the number-average molar mass Mn of hydrocarbon-based polymer of formula is within a range from 400 to 50 000 g/mol, preferably from 600 to 20 000 g/mol, and the polydispersity index of hydrocarbon-based polymer of formula is within a range from 1.0 to 2.0 and preferably from 1.45 to 1.85, both being measured by the method described in the description. - each carbon-carbon bond of the chain noted as is a double bond or a single bond, in accordance with the valency rules of organic chemistry; - the groups R 2, R 3, R 4 and R 5 are each, independently of the other groups or otherwise, a hydrogen, a halo group, an alkoxycarbonyl group or an alkyl group, the groups R 2 to R 5 possibly being linked together as members of the same saturated or unsaturated ring or heterocycle, - m and p are integers each within a range from 0 to 5, preferably from 0 to 2, and even more preferably m and p are both equal to 1, the sum m + p itself being within a range from 0 to 10, preferably from 0 to 6, - R and R', which may be identical or different, each represent a linear or branched, preferably linear, alkyl group comprising from 1 to 4 and preferably from 1 to 2 carbon atoms, - Z is a divalent group chosen from alkylene groups, optionally interrupted with an ester function, and comprising from 1 to 22 and preferably from 1 to 6 carbon atoms, - q is an integer equal to 0 or 1, - r is an integer equal to 0, 1 or 2, and - n is an integer such that the number-average molar mass Mn of hydrocarbon-based polymer of formula is within a range from 400 to 50 000 g/mol, preferably from 600 to 20 000 g/mol, and the polydispersity index of hydrocarbon-based polymer of formula is within a range from 1.0 to 2.0 and preferably from 1.45 to 1.85, both being measured by the method described in the description.
Filter apparatus comprising at least a first pressure vessel and a second pressure vessel, each pressure vessel containing a membrane filter, the membrane filter arranged according the cross-filtration principle so that liquid feed entered to a pressure vessel is divided to a permeate part and to a concentrate part, each pressure vessel comprising a feed inlet for pressurized liquid feed and a concentrate outlet for concentrate and a permeate outlet for permeate, characterized in that, the concentrate outlet of the second pressure vessel is connected to the feed inlet of the first pressure vessel and the concentrate outlet of the first pressure vessel is connected to the feed inlet of the second pressure vessel, each liquid path connecting the concentrate outlet of one pressure vessel and the liquid feed inlet of the adjacent pressure vessel comprises a nozzle configured for feeding pressurized liquid towards liquid feed inlet and creating liquid circulation between adjacent pressure vessels.