mhurhangee/patent-ind-claim-en huggingface dataset:
A covering device for a drinking vessel , namely a bottle, comprising: - an attachment member for attaching the covering device to the drinking vessel , - a cover member for covering a drinking opening of the drinking vessel , - and an operating mechanism for displacing the cover member from a closed position into an open position and from an open position into a closed position, wherein the operating mechanism comprises an operating element , the operating mechanism comprising a transmission , via which the operating element is coupled to the cover member , wherein the operating element is configured as an operating weight , and wherein the cover member is pivotably mounted about a first pivot axis , characterised - in that the operating element is pivotably mounted about a second pivot axis , - and in that the transmission has a transmission ratio greater than 1, whereby a pivoting of the operating element about the second pivot axis by the angle α causes a pivoting of the cover member about the first pivot axis by the angle α*x, wherein x is greater than 1. - an attachment member for attaching the covering device to the drinking vessel , - a cover member for covering a drinking opening of the drinking vessel , - and an operating mechanism for displacing the cover member from a closed position into an open position and from an open position into a closed position, wherein the operating mechanism comprises an operating element , the operating mechanism comprising a transmission , via which the operating element is coupled to the cover member , wherein the operating element is configured as an operating weight , and wherein the cover member is pivotably mounted about a first pivot axis , characterised wherein the operating element is configured as an operating weight , and wherein the cover member is pivotably mounted about a first pivot axis , characterised - in that the operating element is pivotably mounted about a second pivot axis , - and in that the transmission has a transmission ratio greater than 1, whereby a pivoting of the operating element about the second pivot axis by the angle α causes a pivoting of the cover member about the first pivot axis by the angle α*x, wherein x is greater than 1.
A method for determining path loss, applied to user equipment, UE, the UE being a narrowband internet of things, NB-IoT, device, the method comprising: determining transmission power of a downlink narrowband reference signal, NRS; determining a measurement value of narrowband reference signal received power, NRSRP; and under a circumstance that a preset higher layer filter parameter is not received from a base station, determining the path loss between the base station and the NB-IoT device according to the transmission power of the downlink NRS and the measurement value of the NRSRP, characterized in that , the path loss between the base station and the NB-IoT device is determined by : PLc = nrs − Power + nrs − PowerOffsetNonAnchor − NRSRP , wherein PLc is the path loss, nrs-Power is the transmission power of the downlink NRS transmitted by the base station, nrs-PowerOffsetNonAnchor is a non-anchor power offset of the downlink NRS, and NRSRP is the measurement value of the NRSRP, which is actual received power without higher layer filtering, measured by a physical layer of the UE, of the downlink NRS. determining transmission power of a downlink narrowband reference signal, NRS; determining a measurement value of narrowband reference signal received power, NRSRP; and under a circumstance that a preset higher layer filter parameter is not received from a base station, determining the path loss between the base station and the NB-IoT device according to the transmission power of the downlink NRS and the measurement value of the NRSRP, characterized in that , the path loss between the base station and the NB-IoT device is determined by : PLc = nrs − Power + nrs − PowerOffsetNonAnchor − NRSRP , wherein PLc is the path loss, nrs-Power is the transmission power of the downlink NRS transmitted by the base station, nrs-PowerOffsetNonAnchor is a non-anchor power offset of the downlink NRS, and NRSRP is the measurement value of the NRSRP, which is actual received power without higher layer filtering, measured by a physical layer of the UE, of the downlink NRS.
An integrated circuit device comprising: programmable logic fabric disposed on a first integrated circuit die , wherein the programmable logic fabric comprises a first region of programmable logic fabric, wherein the first region of programmable logic fabric is configured to be programmed with a circuit design that operates on a first set of data; network on chip, NOC, circuitry disposed on a second integrated circuit die , wherein the NOC circuitry is configured to communicate data between the first integrated circuit die and the second integrated circuit die , and the NOC circuitry is configured to communicate a second set of data from the first region of programmable logic fabric to a second region of programmable logic fabric, wherein a plurality of powered down sectors is disposed between the first region of programmable logic fabric and the second region of programmable logic fabric on the first integrated circuit die , thereby preventing communication across the plurality of powered down sectors ; and a sector-aligned memory disposed on the second integrated circuit die , wherein the sector-aligned memory comprises a first region of sector-aligned memory directly accessible by the first region of programmable logic fabric and a second region of sector-aligned memory directly accessible by a second region of programmable logic fabric. programmable logic fabric disposed on a first integrated circuit die , wherein the programmable logic fabric comprises a first region of programmable logic fabric, wherein the first region of programmable logic fabric is configured to be programmed with a circuit design that operates on a first set of data; network on chip, NOC, circuitry disposed on a second integrated circuit die , wherein the NOC circuitry is configured to communicate data between the first integrated circuit die and the second integrated circuit die , and the NOC circuitry is configured to communicate a second set of data from the first region of programmable logic fabric to a second region of programmable logic fabric, wherein a plurality of powered down sectors is disposed between the first region of programmable logic fabric and the second region of programmable logic fabric on the first integrated circuit die , thereby preventing communication across the plurality of powered down sectors ; and a sector-aligned memory disposed on the second integrated circuit die , wherein the sector-aligned memory comprises a first region of sector-aligned memory directly accessible by the first region of programmable logic fabric and a second region of sector-aligned memory directly accessible by a second region of programmable logic fabric.
A device comprising: a bias generator configured to generate a plurality of bias currents; and a testing module configured to test the bias generator, characterized by successively testing each subset of bias currents of a plurality of subsets of bias currents grouped from the plurality of bias currents as a corresponding single test current, wherein at least one of said subsets of bias currents has two or more bias currents. a bias generator configured to generate a plurality of bias currents; and a testing module configured to test the bias generator, characterized by successively testing each subset of bias currents of a plurality of subsets of bias currents grouped from the plurality of bias currents as a corresponding single test current, wherein at least one of said subsets of bias currents has two or more bias currents.
HDMI network device for a HDMI network comprising a network controller adapted to provide Ethernet communication capability, and CEC, consumer electronics control, communication capability, a detecting unit adapted to detect a network device operation of the HDMI network device or another network device of the HDMI network tasked by a user, the network device operation tasked by the user being one of playback, stop playback, switch on, switch into stand-by mode; a database generator unit adapted to generate a database containing - information about the HDMI network device and other network devices of said HDMI network, the information including a unique identifier for each HDMI network device, and - for the detected network device operation information comprising the network device operation, and the source , sink and/or repeater network devices involved in the detected network device operation,; an evaluation unit adapted to evaluate the database, and an operation option unit adapted to provide in response to the evaluation of the database an operation option, like continue playback, related to a detected network device operation, like stop playback, the operation option allowing to re-route an audio, video and/or data stream from the source network device to another sink network device on the basis of the step of evaluating the database which identifies the unique identifier of the source network device and in response thereto the physical address of the source network , even if the source network device received a new physical address in the HDMI network after the detected network device operation. - information about the HDMI network device and other network devices of said HDMI network, the information including a unique identifier for each HDMI network device, and - for the detected network device operation information comprising the network device operation, and the source , sink and/or repeater network devices involved in the detected network device operation,;
Method for operating a current sensor , which has a first measurement resistor , a second measurement resistor and also a reference resistor , wherein the first measurement resistor and the second measurement resistor are arranged in series between a first connection and a second connection of the current sensor , and wherein the reference resistor is electrically disconnected from the first measurement resistor and from the second measurement resistor in a first measurement state and the reference resistor is electrically connected in parallel with the first measurement resistor in a second measurement state, comprising the following steps: a) in the first measurement state, identifying the voltage drop at the first measurement resistor and the voltage drop at the second measurement resistor and determining the ratio of the voltage drop at the first measurement resistor and the voltage drop at the second measurement resistor , b) in the second measurement state, identifying the voltage drop at the first measurement resistor , the voltage drop at the second measurement resistor and also the voltage drop at the reference resistor and determining the electrical resistance of the first measurement resistor and determining the electrical resistance of the second measurement resistor from the identified voltage drops, the electrical resistance of the reference resistor and the ratio of the voltage drops of the first measurement resistor and the second measurement resistor determined in the first measurement state. a) in the first measurement state, identifying the voltage drop at the first measurement resistor and the voltage drop at the second measurement resistor and determining the ratio of the voltage drop at the first measurement resistor and the voltage drop at the second measurement resistor , b) in the second measurement state, identifying the voltage drop at the first measurement resistor , the voltage drop at the second measurement resistor and also the voltage drop at the reference resistor and determining the electrical resistance of the first measurement resistor and determining the electrical resistance of the second measurement resistor from the identified voltage drops, the electrical resistance of the reference resistor and the ratio of the voltage drops of the first measurement resistor and the second measurement resistor determined in the first measurement state.
An electronic device comprising: a panel ; and a press detector configured to detect a press; wherein the press detector is configured to detect the press by detecting a force in a direction different from a press direction of the panel and the press detector is configured to detect the press on the basis of a force in a direction orthogonal to the press direction, characterized in that the panel is configured to be displaced with a displacement component in the press direction and also a displacement component in the direction orthogonal to the press direction in accordance with a press on an interface surface of the panel . a panel ; and a press detector configured to detect a press; wherein the press detector is configured to detect the press by detecting a force in a direction different from a press direction of the panel and
A track maintenance vehicle for carrying out track maintenance operations, including a machine frame having on-track undercarriages spaced from one another in a longitudinal direction of the machine, the machine frame being delimited with respect to a transverse direction of the machine by two longitudinal beams spaced from one another, wherein at least one longitudinal beam is connected to a rail transport device , provided for receiving rails , which is displaceable by means of a displacement drive in the transverse direction of the machine relative to the machine frame within a displacement path delimited by a transport position and a loading position, characterized in that the rail transport device is arranged - with regard to a vertical - between an upper and lower end of the longitudinal beam and at a beam exterior side facing away from the opposite longitudinal beam .
Oligomeric organosilane containing at least two different structural units within a molecule, selected from the structural units A, B, C and D joined in any desired linear, branched or cyclic arrangement, where Y = SH or -S x - (CH 2 )SiRR 1 R 2 , with n = 1-8, G = SH or -S x -(CH 2 ) n SiRR 1 R 2 , with G different from Y, R, R 1 , R 2 , R 3 , R 4 are each independently OH, (C 1 -C 16 ) alkyl, (C 2 -C 16 ) alkenyl, (C 6 -C 14 ) aryl, (C 1 -C 4 ) alkoxy, an OSiR 1 R 2 R 3 group or an alkyl polyether group -O- (R 5 -O) m -R 6 , where R 5 is the same or different and is a branched or unbranched, saturated or unsaturated, aliphatic divalent C1-C30 hydrocarbon group, m on average is 1 to 30, and R 6 is an unsubstituted or substituted, branched or unbranched C 1 -C 30 alkyl group, C 2 -C 30 alkenyl group, a C 6 -C 14 aryl group, or a C 7 -C 40 aralkyl group, x on statistical average is 1 - 6, z on statistical average is 1 - 6, characterized in that R 7 is an alkyl polyether group -O-(R 5 -O) m -R 6 and the oligomeric organosilane contains structural units A and B and C, A and B, A and D, A and C and D, or A and C, and in that the molecular weight of the oligomers, measured by GPC in relation to a standard, consisting of a mixture of siloxanes of vinyltrimethoxysilane, is between 400 and 100 000 g/mol. where Y = SH or -S x - (CH 2 )SiRR 1 R 2 , with n = 1-8, G = SH or -S x -(CH 2 ) n SiRR 1 R 2 , with G different from Y, R, R 1 , R 2 , R 3 , R 4 are each independently OH, (C 1 -C 16 ) alkyl, (C 2 -C 16 ) alkenyl, (C 6 -C 14 ) aryl, (C 1 -C 4 ) alkoxy, an OSiR 1 R 2 R 3 group or an alkyl polyether group -O- (R 5 -O) m -R 6 , where R 5 is the same or different and is a branched or unbranched, saturated or unsaturated, aliphatic divalent C1-C30 hydrocarbon group, m on average is 1 to 30, and R 6 is an unsubstituted or substituted, branched or unbranched C 1 -C 30 alkyl group, C 2 -C 30 alkenyl group, a C 6 -C 14 aryl group, or a C 7 -C 40 aralkyl group, x on statistical average is 1 - 6, z on statistical average is 1 - 6, characterized in that R 7 is an alkyl polyether group -O-(R 5 -O) m -R 6 and the oligomeric organosilane contains structural units A and B and C, A and B, A and D, A and C and D, or A and C, and in that the molecular weight of the oligomers, measured by GPC in relation to a standard, consisting of a mixture of siloxanes of vinyltrimethoxysilane, is between 400 and 100 000 g/mol.
An ophthalmic formulation comprising a galactomannan, borate, a demulcent and a cis-diol, wherein said formulation comprises less than 5 parts per million of divalent cations, wherein said galactomannan is present at a concentration of 0.19 w/v% and said borate is present at a concentration of 0.7 w/v%, and said cis-diol is sorbitol at a concentration of 1.4 w/v%, wherein said demulcent is polypropylene glycol or polyethylene glycol.
A display device , comprising: a light source configured to provide illumination light ; a spatial light modulator positioned to receive the illumination light ; and an optical assembly including an optical element and a curved reflector that is distinct and separate from the optical element , the curved reflector being disposed relative to the light source so that the curved reflector is configured to receive the illumination light and reflect at least a portion of the illumination light so that the at least a portion of the illumination light that is reflected by the curved reflector : is received by the optical element , is reflected by the optical element toward the curved reflector , and is transmitted through the curved reflector ; characterized in that the light source is disposed between the curved reflector and the optical element . a light source configured to provide illumination light ; a spatial light modulator positioned to receive the illumination light ; and an optical assembly including an optical element and a curved reflector that is distinct and separate from the optical element , the curved reflector being disposed relative to the light source so that the curved reflector is configured to receive the illumination light and reflect at least a portion of the illumination light so that the at least a portion of the illumination light that is reflected by the curved reflector : is received by the optical element , is reflected by the optical element toward the curved reflector , and is transmitted through the curved reflector ; is received by the optical element , is reflected by the optical element toward the curved reflector , and is transmitted through the curved reflector ;
A communication device comprising: a processing part ; and a communication part that transmits a main frame (F1) including main data to one or more slaves in a first period (CT1) and communicates with the one or more slaves , wherein the processing part has a function of executing communication processing for generating the main frame within a time shorter than the first period, and executing setting processing for setting a second period (CT2) and a time slot (S0), the second period being shorter than the first period and longer than a transfer time of the main data, the time slot being allocated to at least one slave among the one or more slaves in every second periods, wherein the time slot is used for communication with the one or more slaves. a processing part ; and a communication part that transmits a main frame (F1) including main data to one or more slaves in a first period (CT1) and communicates with the one or more slaves , wherein the processing part has a function of executing communication processing for generating the main frame within a time shorter than the first period, and executing setting processing for setting a second period (CT2) and a time slot (S0), the second period being shorter than the first period and longer than a transfer time of the main data, the time slot being allocated to at least one slave among the one or more slaves in every second periods, wherein the time slot is used for communication with the one or more slaves. executing communication processing for generating the main frame within a time shorter than the first period, and executing setting processing for setting a second period (CT2) and a time slot (S0), the second period being shorter than the first period and longer than a transfer time of the main data, the time slot being allocated to at least one slave among the one or more slaves in every second periods, wherein the time slot is used for communication with the one or more slaves.
A method for making a matrix having substantially parallel axially aligned pores comprising inserting a liquid slurry comprising collagen and water into a collagen tube; freezing the slurry along an axial direction of the slurry to form a frozen slurry having parallel axially aligned ice crystals, wherein the collagen tube and the slurry are thermally insulated with a thermal insulating material that prevents heat transfer through the wall of the tube to provide little or no substantial radial thermal gradient during the step of freezing the slurry; and freeze drying the frozen slurry to remove the parallel axially aligned ice crystals and form the matrix having substantially parallel axially aligned pores.
One or more computer-readable media having instructions that, when executed by one or more processors, cause a network manager, NM , or network manager function, NMF, to: generate and send a configuration management, CM, command to an element manager, EM , or element manager function, EMF, to create, modify, or delete an information object class, IOC, that is to represent a next generation node B, gNB, wherein the IOC contains a next generation universal terrestrial radio access network, GUTRAN, Cell IOC to represent a GUTRAN cell to be provided by the gNB, wherein the GUTRAN Cell IOC is contained in a gNB Function IOC that represents the gNB or a Central Unit CU IOC that represents a CU of the gNB; and process a response from the EM to determine a result of a CM operation performed based on the CM command . generate and send a configuration management, CM, command to an element manager, EM , or element manager function, EMF, to create, modify, or delete an information object class, IOC, that is to represent a next generation node B, gNB, wherein the IOC contains a next generation universal terrestrial radio access network, GUTRAN, Cell IOC to represent a GUTRAN cell to be provided by the gNB, wherein the GUTRAN Cell IOC is contained in a gNB Function IOC that represents the gNB or a Central Unit CU IOC that represents a CU of the gNB; and process a response from the EM to determine a result of a CM operation performed based on the CM command .