mhurhangee/patent-ind-claim-en huggingface dataset:
A package that includes: a container (12; 112; 212; 312; 412; 512; 712; 1312; 1812; 1912) having an interior and a base , and a closure removably closing said container, further including means for indicating that said package has been opened from its original factory sealed condition by removing said closure from said container, wherein said means include: a drop indicator comprising a closure coupling portion detachably couplable to the closure and operatively coupled to said container so that it is designed to drop into the container upon closure removal, characterized in that the drop indicator is constructed at least in part of photochromic material.
Method for the continuous production of laminates made of at least two fibre bands (1, 1', 1") made of fibres which are embedded unidirectionally in a plastic material matrix, having the following steps: a) transport of the fibre bands (1, 1', 1") from respectively one material store (2, 2', 2") by at least one transport roller (3a, 3b, 3a', 3b', 3a", 3b") to a joining station , b) layer-like combining of the fibres bands (1, 1', 1") in the joining station by at least two consolidation units, c) joining the fibre bands (1, 1', 1") by means of the two consolidation units to form a continuous laminate and also d) solidification of the laminate , wherein before or during step d), shaping of the laminate with circular, S-shaped or meandering geometries is effected by means of at least two shaping units the shaping units being positioned behind the consolidation units such that different shapes of the laminate are produced during solidification of the laminate due to the stressing of the laminate . a) transport of the fibre bands (1, 1', 1") from respectively one material store (2, 2', 2") by at least one transport roller (3a, 3b, 3a', 3b', 3a", 3b") to a joining station , b) layer-like combining of the fibres bands (1, 1', 1") in the joining station by at least two consolidation units, c) joining the fibre bands (1, 1', 1") by means of the two consolidation units to form a continuous laminate and also d) solidification of the laminate ,
An imaging apparatus comprising: a fixing component arranged to fix an imaging lens and has a side surface including an opening; a holding frame arranged to hold an optical element and having a gear ; a holding base arranged to be inserted into the opening from a direction orthogonal to an optical axis of the imaging lens and to hold the holding frame ; and a driving gear arranged to drive the holding frame in the direction orthogonal to the optical axis of the imaging lens, wherein the gear is arranged to engage with the driving gear ; wherein the holding base has an engagement portion arranged to engage with the driving gear in a case that the holding base is inserted into the opening, and wherein the engagement portion has a shape that is substantially the same as the teeth of the gear . a fixing component arranged to fix an imaging lens and has a side surface including an opening; a holding frame arranged to hold an optical element and having a gear ; a holding base arranged to be inserted into the opening from a direction orthogonal to an optical axis of the imaging lens and to hold the holding frame ; and a driving gear arranged to drive the holding frame in the direction orthogonal to the optical axis of the imaging lens, wherein the gear is arranged to engage with the driving gear ; wherein the holding base has an engagement portion arranged to engage with the driving gear in a case that the holding base is inserted into the opening, and wherein the engagement portion has a shape that is substantially the same as the teeth of the gear .
A method of wireless communication at a user equipment, UE , in a distributed cellular-vehicle to everything, C-V2X, environment, comprising: configuring an ultra-reliable low-latency communication, URLLC, transmission unit; and transmitting the URLLC transmission unit within a regular subframe to a second UE, wherein the regular subframe comprises two slots, and each slot comprises seven OFDM symbols, characterized in that the configuring of the URLLC transmission unit comprises configuring a URLLC transmission indicator , a URLLC control channel , and a URLLC data portion, and wherein the URLLC transmission indicator comprises a one-bit channel to indicate whether or not there is a URLLC transmission in the regular subframe, and is located at the beginning of the regular subframe and the URLLC control channel comprises at least one or more fields for MIMO information and demodulation information for the URLLC data portion. configuring an ultra-reliable low-latency communication, URLLC, transmission unit; and transmitting the URLLC transmission unit within a regular subframe to a second UE, wherein the regular subframe comprises two slots, and each slot comprises seven OFDM symbols, characterized in that the configuring of the URLLC transmission unit comprises configuring a URLLC transmission indicator , a URLLC control channel , and a URLLC data portion, and wherein the URLLC transmission indicator comprises a one-bit channel to indicate whether or not there is a URLLC transmission in the regular subframe, and is located at the beginning of the regular subframe and the URLLC control channel comprises at least one or more fields for MIMO information and demodulation information for the URLLC data portion.
Refrigeration appliance, in particular a household refrigeration appliance, with a storage chamber which can be cooled to below 0°C and a water supply feeding into the storage chamber , wherein the water supply is formed by a resiliently expandable pipeline , at least inside the storage chamber , characterised in that the pipeline is surrounded by a sleeve (21; 24; 28; 29) on at least one part of its length, wherein the sleeve (21; 24; 28, 29) is dimensioned such that it inhibits an expansion of the pipeline beyond its resiliency limit.
Motor-adjustable steering column for a motor vehicle, comprising a supporting unit which is connectable with a vehicle body and by which an actuating unit is held which comprises a steering spindle mounted in a casing unit so as to be rotatable about a longitudinal axis , the casing unit having an outer casing tube , in which an inner casing tube is accommodated so as to be axially displaceable telescopically in the direction of the longitudinal axis , and having an actuating drive , which is connected with the inner casing tube and the outer casing tube and by which the inner casing tube may be displaced axially in and out relative to the outer casing tube , characterized in that a friction means is arranged between the outer casing tube and the inner casing tube , by which friction means a frictional force may be applied between outer casing tube and inner casing tube with regard to relative displacement and which is adjustable between a release position and at least one friction position, wherein the frictional force is higher in the friction position (Rmax) than in the release position and wherein the frictional force is lower in the release position (Rmin) and in the friction position (Rmax) than an axial adjusting force which can be exerted by the actuating drive between the outer casing tube and the inner casing tube .
A method of detecting atrial fibrillation in an electrocardiogram (ECG) acquired from a patient, comprising the following steps performed by a processor: determining times corresponding to R-waves in the electrocardiogram and determining a plurality of sequentially-ordered R-R time intervals corresponding to the R-wave times, characterized in that , the method comprises selecting an R-R test interval (INT) from among the plurality of R-R time intervals; sequentially selecting the R-R time intervals and comparing same to the test interval in an episode base rhythm state machine to determine which of the selected R-R time intervals correspond to at least one of a predetermined number of non-atrial-fibrillation states, at least some of the non-atrial-fibrillation states requiring updating of INT when R-R time intervals are compared therein, and further determining which of the selected R-R time intervals correspond to a potential atrial fibrillation state, and generating, on the basis of the selected and compared R-R time intervals, a base cardiac rhythm score, the method further comprising at least one of calculating an R-R variability score based on the sequentially-ordered R-R time intervals, and calculating an R-R periodicity score based on the sequentially-ordered R-R time intervals, and further comprising combining the base cardiac rhythm score with at least one of the R-R variability score and the R-R periodicity score to produce an atrial fibrillation evidence score. determining times corresponding to R-waves in the electrocardiogram and determining a plurality of sequentially-ordered R-R time intervals corresponding to the R-wave times, characterized in that , the method comprises selecting an R-R test interval (INT) from among the plurality of R-R time intervals; sequentially selecting the R-R time intervals and comparing same to the test interval in an episode base rhythm state machine to determine which of the selected R-R time intervals correspond to at least one of a predetermined number of non-atrial-fibrillation states, at least some of the non-atrial-fibrillation states requiring updating of INT when R-R time intervals are compared therein, and further determining which of the selected R-R time intervals correspond to a potential atrial fibrillation state, and generating, on the basis of the selected and compared R-R time intervals, a base cardiac rhythm score, the method further comprising at least one of calculating an R-R variability score based on the sequentially-ordered R-R time intervals, and calculating an R-R periodicity score based on the sequentially-ordered R-R time intervals, and further comprising combining the base cardiac rhythm score with at least one of the R-R variability score and the R-R periodicity score to produce an atrial fibrillation evidence score.
A method of terminating a cable with a coaxial cable connector , comprising the steps of: providing a cable comprising an inner conductor , an outer conductor , and an outer jacket formed of dielectric material; preparing a termination end of the cable by, removing an end portion of the outer jacket at the termination end of the cable to expose a portion of the outer conductor commensurate with the end portion removed from the outer jacket , characterized by the further steps forming one or more lateral slits in a predetermined portion of the outer jacket and in the outer conductor , at the termination end of the cable , and folding back the exposed portion of the outer conductor to provide a post lead-in at the termination end of the cable ; and installing the coaxial connector onto the termination end of the cable by inserting a post end of the coaxial connector into the post lead-in of the outer conductor , thereby electrically connecting the outer conductor of the cable and the post end of the coaxial connector . providing a cable comprising an inner conductor , an outer conductor , and an outer jacket formed of dielectric material; preparing a termination end of the cable by, removing an end portion of the outer jacket at the termination end of the cable to expose a portion of the outer conductor commensurate with the end portion removed from the outer jacket , characterized by the further steps forming one or more lateral slits in a predetermined portion of the outer jacket and in the outer conductor , at the termination end of the cable , and folding back the exposed portion of the outer conductor to provide a post lead-in at the termination end of the cable ; and removing an end portion of the outer jacket at the termination end of the cable to expose a portion of the outer conductor commensurate with the end portion removed from the outer jacket , characterized by the further steps forming one or more lateral slits in a predetermined portion of the outer jacket and in the outer conductor , at the termination end of the cable , and folding back the exposed portion of the outer conductor to provide a post lead-in at the termination end of the cable ; and installing the coaxial connector onto the termination end of the cable by inserting a post end of the coaxial connector into the post lead-in of the outer conductor , thereby electrically connecting the outer conductor of the cable and the post end of the coaxial connector .
Method for associating a new gathering node in a distributed wireless communication network conforming to one of the IEEE 802.11 standards, comprising at least one gathering node, each gathering node comprising at least one access-point (AP-B) and/or user (ST-B) radio-frequency interface of a so-called gathering wireless network associated with the communication network and an access-point radio-frequency interface (AP-F) of a so-called user wireless network associated with the communication network, a network identifier referred to as a gathering network identifier and a security key referred to as a gathering security key characterising said so-called gathering wireless network, the method being executed by a management node of the communication network and being characterised in that it comprises the steps of: - receiving a message comprising information that a new gathering node is to be associated, - sending , to each gathering node in the communication network, a command to activate a so-called association radio-frequency interface, said activation command making it possible to activate a so-called association wireless network different from said gathering wireless network and from said user wireless network, characterised by a predetermined network identifier referred to as an association network identifier, - receiving a message indicating that the new gathering node is associated with an existing gathering node via its so-called association radio-frequency interface, - determining a first validation of association of the new gathering node, - if the association is validated, then sending to the new gathering node information on parameterisings comprising at least information necessary for an association of the new node with the gathering wireless network of the communication network, said information comprising said gathering network identifier and said gathering security key. - receiving a message comprising information that a new gathering node is to be associated, - sending , to each gathering node in the communication network, a command to activate a so-called association radio-frequency interface, said activation command making it possible to activate a so-called association wireless network different from said gathering wireless network and from said user wireless network, characterised by a predetermined network identifier referred to as an association network identifier, - receiving a message indicating that the new gathering node is associated with an existing gathering node via its so-called association radio-frequency interface, - determining a first validation of association of the new gathering node, - if the association is validated, then sending to the new gathering node information on parameterisings comprising at least information necessary for an association of the new node with the gathering wireless network of the communication network, said information comprising said gathering network identifier and said gathering security key.
A method performed by a wireless communication device , the method comprising: obtaining a configuration of a plurality of sets of resources for cooperative uplink transmission, the plurality of sets of resources comprising N sets of resources that are mapped to N possible data elements that can be communicated by a cooperative uplink transmission by a group of two or more wireless devices including the wireless communication device , where N is an integer number that is greater than or equal to 2; and transmitting a transmission using at least a subset of a particular set of resources from among the N sets of resources that is mapped to a particular data element from among the N possible data elements that is to be communicated by the wireless communication device for the cooperative uplink transmission. obtaining a configuration of a plurality of sets of resources for cooperative uplink transmission, the plurality of sets of resources comprising N sets of resources that are mapped to N possible data elements that can be communicated by a cooperative uplink transmission by a group of two or more wireless devices including the wireless communication device , where N is an integer number that is greater than or equal to 2; and transmitting a transmission using at least a subset of a particular set of resources from among the N sets of resources that is mapped to a particular data element from among the N possible data elements that is to be communicated by the wireless communication device for the cooperative uplink transmission.
A modification process for modifying a biaxially oriented pipe, comprising a) providing a biaxially oriented pipe made by stretching a tube made of a thermoplastic polymer composition in the axial direction and in the peripheral direction, b) placing an insert within an end portion of the pipe, wherein the outer periphery of the cross section of the insert substantially matches the inner periphery of the cross section of the pipe and c) heating the end portion such that the end portion axially shrinks while the inner periphery of the cross section of the end portion is substantially maintained, to obtain a modified biaxially oriented pipe with a thickened end portion. a) providing a biaxially oriented pipe made by stretching a tube made of a thermoplastic polymer composition in the axial direction and in the peripheral direction, b) placing an insert within an end portion of the pipe, wherein the outer periphery of the cross section of the insert substantially matches the inner periphery of the cross section of the pipe and c) heating the end portion such that the end portion axially shrinks while the inner periphery of the cross section of the end portion is substantially maintained, to obtain a modified biaxially oriented pipe with a thickened end portion.
Fuel delivery unit for a fuel tank, having a fuel pump (P1, 7) that is drivable by an electric motor (M1) and having at least one suction jet pump for delivering fuel, said suction jet pump being operated by a propulsion jet that is able to be delivered by the fuel pump (P1, 7), wherein the fuel pump (P1, 7) can be arranged in a swirl pot, which is fillable by the suction jet pump, and wherein the fuel pump (P1, 7) has a first outlet (A1), through which fuel is able to be delivered to a consumer, wherein the fuel pump (P1, 7) has a second outlet (A2), wherein the second outlet (A2) is openable or closable by a valve (V1), characterized in that the valve (V1) is adjustable by the electric motor (M1) via a mechanical coupling (K1) to the electric motor (M1).
A method of wireless communication, comprising: transmitting , from a base station in a subframe a request for a sounding reference signal, SRS, from a user equipment, UE , wherein the request for the SRS includes configuration information about the SRS and is transmitted during a first downlink portion of the subframe inserted at the beginning of the subframe , the subframe consisting of the first downlink portion, an uplink portion following the first downlink portion, and a second downlink portion following the uplink portion; receiving , at the base station in the same subframe in the uplink portion, the SRS from the UE in response to the transmitted request for the SRS, wherein the SRS is configured according to the configuration information; training , at the base station , a beamforming pattern for an antenna of the base station based on information extracted from the received SRS; and using, at the base station , the trained beamforming pattern for a downlink transmission from the base station to the UE , wherein the downlink transmission from the base station to the UE occurs in the second downlink portion of the subframe . transmitting , from a base station in a subframe a request for a sounding reference signal, SRS, from a user equipment, UE , wherein the request for the SRS includes configuration information about the SRS and is transmitted during a first downlink portion of the subframe inserted at the beginning of the subframe , the subframe consisting of the first downlink portion, an uplink portion following the first downlink portion, and a second downlink portion following the uplink portion; receiving , at the base station in the same subframe in the uplink portion, the SRS from the UE in response to the transmitted request for the SRS, wherein the SRS is configured according to the configuration information; training , at the base station , a beamforming pattern for an antenna of the base station based on information extracted from the received SRS; and using, at the base station , the trained beamforming pattern for a downlink transmission from the base station to the UE , wherein the downlink transmission from the base station to the UE occurs in the second downlink portion of the subframe .
A tensioning system , comprising: a tensioning cable ; and a knitted component having a knit element and at least three inlaid strands that are inlaid within the knit element , wherein the at least three inlaid strands each have an exposed portion that is exposed on a surface of the knit element ,wherein a channel is defined between the exposed portions of the at least three inlaid strands and the surface of the knit element , and wherein the tensioning cable extends through the channel wherein the tensioning system is characterized in that the tensioning cable extends through the channel beneath the at least three exposed portions , wherein the at least three exposed portions are each straight and extend parallel to each other. a tensioning cable ; and a knitted component having a knit element and at least three inlaid strands that are inlaid within the knit element , wherein the at least three inlaid strands each have an exposed portion that is exposed on a surface of the knit element ,wherein a channel is defined between the exposed portions of the at least three inlaid strands and the surface of the knit element , and wherein the tensioning cable extends through the channel wherein the tensioning system is characterized in that the tensioning cable extends through the channel beneath the at least three exposed portions , wherein the at least three exposed portions are each straight and extend parallel to each other.
A polyolefin composition comprising: (a) a polypropylene polymer; (b) 1,3:2,4-bis- O -[(3,4-dimethylphenyl)methylene]-D-glucitol; and (c) 1,3:2,4-bis -O -[(3,4-dichlorophenyl)methylene]-D-glucitol wherein the mass ratio of 1,3:2,4-bis- O -[(3,4-dimethylphenyl)methylene]-D-glucitol to 1,3:2,4-bis- O -[(3,4-dichlorophenyl)methylene]-D-glucitol is 9:1 to 1:9, and the polyolefin composition has an apparent melt viscosity of ≤ 450 Pa·s, determined according to ASTM Test Method D3835-08 using a capillary rheometer equipped with a 1.00 mm diameter capillary die with a length to diameter ratio of 30:1 and at conditions of an apparent shear rate of 100 s - 1, a temperature of 190°C and conditioning the sample in the rheometer for a 6 minute dwell time prior to testing. (a) a polypropylene polymer; (b) 1,3:2,4-bis- O -[(3,4-dimethylphenyl)methylene]-D-glucitol; and (c) 1,3:2,4-bis -O -[(3,4-dichlorophenyl)methylene]-D-glucitol