mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus of a user equipment, UE , comprising: multiple radio frequency, RF, chains configured to operate on multiple RF bands; one or more baseband processors to decode a radio resource configuration, RRC, message received from an evolved NodeB , eNB, wherein the RRC message includes a request field for the UE to provide a measurement gap, MG, preference and at least a carrier aggregation, CA, specific measurement group CA specific MG request information element, IE, and to encode an RRC response message for the eNB , wherein the RRC response message includes a UE-EUTRA-Capability IE used to convey the measurement gap preference, the EUTRA UE Radio Access Capability Parameters and the Feature Group Indicators for mandatory features to the network; and a memory to store the measurement gap preference; and characterized in that : the UE-EUTRA-Capability IE indicates a type of measurement gap for an associated serving cell and per band combination, one of three values i) a regular measurement gap, ii) a small measurement gap or iii) no gap is required. multiple radio frequency, RF, chains configured to operate on multiple RF bands; one or more baseband processors to decode a radio resource configuration, RRC, message received from an evolved NodeB , eNB, wherein the RRC message includes a request field for the UE to provide a measurement gap, MG, preference and at least a carrier aggregation, CA, specific measurement group CA specific MG request information element, IE, and to encode an RRC response message for the eNB , wherein the RRC response message includes a UE-EUTRA-Capability IE used to convey the measurement gap preference, the EUTRA UE Radio Access Capability Parameters and the Feature Group Indicators for mandatory features to the network; and a memory to store the measurement gap preference; and characterized in that : the UE-EUTRA-Capability IE indicates a type of measurement gap for an associated serving cell and per band combination, one of three values i) a regular measurement gap, ii) a small measurement gap or iii) no gap is required.
A disconnect assembly for a power transfer unit, comprising: an input shaft rotated about an axis ; a disconnect shaft axially aligned with the input shaft ; a collar movable relative to the input shaft and disconnect shaft from an engaged position wherein the collar couples together the input shaft and the disconnect shaft so that rotation of the input shaft causes rotation of the disconnect shaft and a disengaged position wherein the collar does not couple the input shaft and disconnect shaft and the disconnect shaft does not rotate with the input shaft ; and a shock absorbing device ; characterized in that the shock absorbing device is carried by the input shaft to engage the collar when the collar is in its engaged position, and that the input shaft has an end portion with a flange that supports the shock absorbing device and permits the shock absorbing device to be compressed between the collar and the flange . an input shaft rotated about an axis ; a disconnect shaft axially aligned with the input shaft ; a collar movable relative to the input shaft and disconnect shaft from an engaged position wherein the collar couples together the input shaft and the disconnect shaft so that rotation of the input shaft causes rotation of the disconnect shaft and a disengaged position wherein the collar does not couple the input shaft and disconnect shaft and the disconnect shaft does not rotate with the input shaft ; and a shock absorbing device ; that the shock absorbing device is carried by the input shaft to engage the collar when the collar is in its engaged position, and that the input shaft has an end portion with a flange that supports the shock absorbing device and permits the shock absorbing device to be compressed between the collar and the flange .
Communication device for communicating within a group of communication devices (150A; 150B; 150C) associated with the communication device , the communication device comprising circuitry configured to listen to a training and control period of a further communication device which is acting as a wireless network coordinator of a further group of communication devices (150D; 150E) associated with the further communication device and transmits frames with a succession of directive beams, each identified by a transmit sector, generate reception quality information associating each transmit sector with a quality indicator indicative of a reception quality of the received frames, obtain scheduling information from the further communication device including at least one scheduled data transfer period with transmit sector information associated therewith, and generate scheduled data transfer periods for the group of communication devices (150A; 150B; 150C) based on the reception quality information and the scheduling information, including the transmit sector information, such that interference levels at the further communication device and/or another communication device (150A; 150B; 150C; 150D; 150E) are minimized. listen to a training and control period of a further communication device which is acting as a wireless network coordinator of a further group of communication devices (150D; 150E) associated with the further communication device and transmits frames with a succession of directive beams, each identified by a transmit sector, generate reception quality information associating each transmit sector with a quality indicator indicative of a reception quality of the received frames, obtain scheduling information from the further communication device including at least one scheduled data transfer period with transmit sector information associated therewith, and generate scheduled data transfer periods for the group of communication devices (150A; 150B; 150C) based on the reception quality information and the scheduling information, including the transmit sector information, such that interference levels at the further communication device and/or another communication device (150A; 150B; 150C; 150D; 150E) are minimized.
Switching device , in particular switching strip for low voltage, high power fuses, having a carrier part and having a component of an electronics system that is arranged in the carrier part , wherein the carrier part has a bottom part and a bearing part which can be connected to the bottom part , wherein at least one pair of contacts is arranged on a front side of the bottom part , for receiving an electrical fuse or a disconnecting blade, characterized in that the component of the electronics system is mounted in the bearing part , wherein the component of the electronics system is releasably attached to the bearing part , wherein the bearing part , with the component of the electronics system that is mounted in the bearing part , can be plugged onto the bottom part from the front side of the bottom part .
A heating installation for premises, the installation comprising: a controller , and coupled to the controller : an air source heat pump ; a premises heating arrangement ; and a local weather sensing arrangement ; wherein the controller is configured to: receive weather forecast data from an external source , and local weather status information from the local weather sensing arrangement ; set a control algorithm based on both the weather forecast data and the local weather status information; control a supply of energy from the air source heat pump to the premises heating arrangement based on the set control algorithm; characterised in that the controller is configured to: increase energy input into the premises heating arrangement in anticipation of a forecast fall in the temperature of the air from which the air source heat pump extracts energy, wherein the controller is configured to control the supply of energy based on a predicted likelihood that the premises heating arrangement will be used during a forecast period of lowered temperature. an air source heat pump ; a premises heating arrangement ; and a local weather sensing arrangement ; wherein the controller is configured to: receive weather forecast data from an external source , and local weather status information from the local weather sensing arrangement ; set a control algorithm based on both the weather forecast data and the local weather status information; control a supply of energy from the air source heat pump to the premises heating arrangement based on the set control algorithm; receive weather forecast data from an external source , and local weather status information from the local weather sensing arrangement ; set a control algorithm based on both the weather forecast data and the local weather status information; control a supply of energy from the air source heat pump to the premises heating arrangement based on the set control algorithm; characterised in that the controller is configured to: increase energy input into the premises heating arrangement in anticipation of a forecast fall in the temperature of the air from which the air source heat pump extracts energy, wherein the controller is configured to control the supply of energy based on a predicted likelihood that the premises heating arrangement will be used during a forecast period of lowered temperature.
A method for certificate revocation check during a subscription related procedure for a subscriber entity , the method being performed by the subscriber entity , the method comprising: sending (S102a) a nonce as a challenge towards the subscription management entity ; receiving (S104) a message from a subscription management entity during the subscription related procedure for the subscriber entity , the message comprising a certificate and an Online Certificate status Protocol, OCSP, response for the certificate, the OCSP response being bound to the nonce and indicating a revocation state of the certificate; and determining (S106) whether the certificate has been revoked or not by checking the revocation state as indicated in the OCSP response. sending (S102a) a nonce as a challenge towards the subscription management entity ; receiving (S104) a message from a subscription management entity during the subscription related procedure for the subscriber entity , the message comprising a certificate and an Online Certificate status Protocol, OCSP, response for the certificate, the OCSP response being bound to the nonce and indicating a revocation state of the certificate; and determining (S106) whether the certificate has been revoked or not by checking the revocation state as indicated in the OCSP response.
A machine tool comprising: a first active element ; a first active element receptacle ; a drive unit operatively connected to the first active element receptacle and configured to guide the first active element receptacle in a first phase of a motion cycle towards the first active element against a workpiece and in a second phase of the motion cycle away from the first active element ; and at least one speed translation unit (28, 28', 28") having a first and a second connecting means wherein the first connecting means is connected to the first active element receptacle and the second connecting means forms a second active element receptacle, characterized in that the at least one speed translation unit (28, 28', 28") is designed as a hydraulic force/distance transducer, wherein the force/distance transducer comprises a housing , the housing interior of which is loaded with a hydraulic fluid, a preferably cylindrical first piston , which is in contact with the hydraulic fluid via a piston end, and a preferably cylindrical second piston which is in contact with the hydraulic fluid via a piston end and the cross-sectional area of which is smaller than the cross-sectional area of the first piston , wherein the first piston or the second piston is configured to be detachably connected as a first connecting means to the active element receptacle of the machine tool and the other piston forms the second active element receptacle as a second connecting means . a first active element ; a first active element receptacle ; a drive unit operatively connected to the first active element receptacle and configured to guide the first active element receptacle in a first phase of a motion cycle towards the first active element against a workpiece and in a second phase of the motion cycle away from the first active element ; and at least one speed translation unit (28, 28', 28") having a first and a second connecting means wherein the first connecting means is connected to the first active element receptacle and the second connecting means forms a second active element receptacle, characterized in that the at least one speed translation unit (28, 28', 28") is designed as a hydraulic force/distance transducer, wherein the force/distance transducer comprises a housing , the housing interior of which is loaded with a hydraulic fluid, a preferably cylindrical first piston , which is in contact with the hydraulic fluid via a piston end, and a preferably cylindrical second piston which is in contact with the hydraulic fluid via a piston end and the cross-sectional area of which is smaller than the cross-sectional area of the first piston , wherein the first piston or the second piston is configured to be detachably connected as a first connecting means to the active element receptacle of the machine tool and the other piston forms the second active element receptacle as a second connecting means .
An elementary device for producing a plasma, comprising a coaxial applicator of microwave power comprising a conductive central core extending along a main axis (AP), a conductive outer shield surrounding said central core , a propagation medium for propagating a microwave energy located between the central core and the shield , a coupling system for coupling to a microwave energy generator, said coupling system being disposed on the outer shield , where said outer shield has a proximal end occluded by an insulating body made of dielectric material transparent to the micro-wave energy and having an outer surface intended to be in contact with a gas to be energized localized inside a chamber , said outer surface having a symmetry of revolution about said main axis (AP), wherein the insulating body protrudes outwardly of the shield according to the main axis (AP), and wherein said outer surface is non-planar and projects outside of the shield , said elementary device being characterized in that the outer surface has an outer diameter decreasing along the main axis (AP) starting from the shield up to its tip.
A load-bearing building block for building mortarless demountable load-bearing walls, the building block having a first short side surface , a second short side surface , a first long side surface , and a second long side surface ; the building block comprising: - interconnecting means in said first short side surface , said second short side surface , said first long side surface , and said second long side surface of the building block for interconnecting the block adjacent to its side surface (12-15), with the interconnecting means of a similar block by use of a first complementary element , wherein said interconnecting means comprise a groove and the first complementary element is slidable in a first dimension along the groove and has a two-dimensional form closure when installed in the groove, wherein interconnecting means of adjacent building blocks forming a corner are situated in front of one another; wherein the combination of said building blocks and said first complementary element allows the build-up of said wall, whereby said wall is part of an architectural structure, characterized in that the building block further comprises - at least one vertical hole , extending from the top to the bottom surface of the block ; wherein said at least one hole is vertically interconnectable with the at least one hole of a similar block , positioned above or below, by use of said first complementary element , the first complementary element being slidable in the first dimension through the hole and having two-dimensional form closure when installed in the hole . - interconnecting means in said first short side surface , said second short side surface , said first long side surface , and said second long side surface of the building block for interconnecting the block adjacent to its side surface (12-15), with the interconnecting means of a similar block by use of a first complementary element , wherein said interconnecting means comprise a groove and the first complementary element is slidable in a first dimension along the groove and has a two-dimensional form closure when installed in the groove, wherein interconnecting means of adjacent building blocks forming a corner are situated in front of one another; wherein the combination of said building blocks and said first complementary element allows the build-up of said wall, whereby said wall is part of an architectural structure, characterized in that the building block further comprises - at least one vertical hole , extending from the top to the bottom surface of the block ; wherein said at least one hole is vertically interconnectable with the at least one hole of a similar block , positioned above or below, by use of said first complementary element , the first complementary element being slidable in the first dimension through the hole and having two-dimensional form closure when installed in the hole .
A battery module comprising, a battery cell laminate comprising a plurality of battery cells stacked in one direction, cooling fins interposed between the battery cells , and a first cooling manifold and a second cooling manifold connected to the cooling fins , wherein the cooling fins include a first cooling fin having a first inlet port and a first outlet port and a second cooling fin having a second inlet port and a second outlet port , and wherein the first inlet port and the second outlet port are connected to the first cooling manifold , and the second inlet port and the first outlet port are connected to the second cooling manifold wherein each of the first cooling manifold and the second cooling manifold is divided into two sections, and wherein the two sections are formed of an inlet manifold and an outlet manifold , the first inlet port is connected to the inlet manifold of the first cooling manifold , the first outlet port is connected to the outlet manifold of the second cooling manifold , the second inlet port is connected to the inlet manifold of the second cooling manifold , and the second outlet port is connected to the outlet manifold of the first cooling manifold . a battery cell laminate comprising a plurality of battery cells stacked in one direction, cooling fins interposed between the battery cells , and a first cooling manifold and a second cooling manifold connected to the cooling fins , wherein the cooling fins include a first cooling fin having a first inlet port and a first outlet port and a second cooling fin having a second inlet port and a second outlet port , and wherein the first inlet port and the second outlet port are connected to the first cooling manifold , and the second inlet port and the first outlet port are connected to the second cooling manifold wherein each of the first cooling manifold and the second cooling manifold is divided into two sections, and wherein the two sections are formed of an inlet manifold and an outlet manifold , the first inlet port is connected to the inlet manifold of the first cooling manifold , the first outlet port is connected to the outlet manifold of the second cooling manifold , the second inlet port is connected to the inlet manifold of the second cooling manifold , and the second outlet port is connected to the outlet manifold of the first cooling manifold .
Method of identifying an object signature in an environment , comprising: acquiring infrared information from the environment using a detection unit in order to obtain an infrared wavelength spectrum associated with the environment (20, S10); selecting three wavelength bands (λ 1 , λ 2 , λ 3 ) of the infrared wavelength spectrum using a filtering unit (32, S20); detecting a presence of the three wavelength bands (λ 1 , λ 2 , λ 3 ) of the infrared wavelength spectrum in the environment by filtering the selected three wavelength bands (λ 1 , λ 2 , λ 3 ) using the filtering unit (32, S30); determining an intensity indicator (I) for the three selected wavelength bands (λ 1 , λ 2 , λ 3 ) using a processing unit (33, S40); classifying the object signature using the processing unit based on the determined intensity indicator (I) in order to identify the object signature (10, S50); wherein classifying the object signature comprises defining a three-dimensional space , each dimension of the three-dimensional space defining an intensity amount (I 1 , I 2 , I 3 ) for a respective one of the three detected wavelength bands (λ 1 , λ 2 , λ 3 , S52). acquiring infrared information from the environment using a detection unit in order to obtain an infrared wavelength spectrum associated with the environment (20, S10); selecting three wavelength bands (λ 1 , λ 2 , λ 3 ) of the infrared wavelength spectrum using a filtering unit (32, S20); detecting a presence of the three wavelength bands (λ 1 , λ 2 , λ 3 ) of the infrared wavelength spectrum in the environment by filtering the selected three wavelength bands (λ 1 , λ 2 , λ 3 ) using the filtering unit (32, S30); determining an intensity indicator (I) for the three selected wavelength bands (λ 1 , λ 2 , λ 3 ) using a processing unit (33, S40); classifying the object signature using the processing unit based on the determined intensity indicator (I) in order to identify the object signature (10, S50); wherein classifying the object signature comprises defining a three-dimensional space , each dimension of the three-dimensional space defining an intensity amount (I 1 , I 2 , I 3 ) for a respective one of the three detected wavelength bands (λ 1 , λ 2 , λ 3 , S52).
Sample container with - a housing which forms a sample chamber for receiving a sample and has at least one annular opening which extends into the sample chamber in the form of a channel, - and a spherical closure element , wherein the opening channel has a (closure) section and for closing the spherical closure element is in contact with the housing to form a one-piece closure element, wherein the opening channel between the closure section and the opening on the inside forms a protrusion which reduces the opening cross-section of the opening channel relative to the opening cross-section in the closure section , characterized in that the opening channel in the region of the closure section is cylindrical and the diameter of the closure element exceeds the diameter of the opening channel in at least the (closure) section only to such an extent so that the closure element can be force-fitted with its largest circumference in the closure section , as a result of which the resulting forces have no or only a relatively small force component in the longitudinal axial direction of the opening channel. - a housing which forms a sample chamber for receiving a sample and has at least one annular opening which extends into the sample chamber in the form of a channel, - and a spherical closure element , wherein the opening channel has a (closure) section and for closing the spherical closure element is in contact with the housing to form a one-piece closure element, wherein the opening channel between the closure section and the opening on the inside forms a protrusion which reduces the opening cross-section of the opening channel relative to the opening cross-section in the closure section , characterized in that the opening channel in the region of the closure section is cylindrical and the diameter of the closure element exceeds the diameter of the opening channel in at least the (closure) section only to such an extent so that the closure element can be force-fitted with its largest circumference in the closure section , as a result of which the resulting forces have no or only a relatively small force component in the longitudinal axial direction of the opening channel.