mhurhangee/ep-ind-claims huggingface dataset:
An injector unit for injecting fuel comprising: a seat plate having a passage opening that extends through the seat plate; an armature element that is placeable onto the seat plate to close the passage opening; a spring element that urges the armature element in the direction of the seat plate to close the passage opening; an electromagnet (6, 7) that is configured to apply a force onto the armature element to raise the armature element from the seat plate; and an abutment for bounding a stroke (x) of the armature element in a state raised from the seat plate, wherein a control unit that is configured to reduce a control signal of the electromagnet (6, 7) to raise the armature element from the seat plate before the armature element contacts the abutment for the first time after a raising from the seat plate., characterized in that the control unit is configured to interrupt the control signal of the electromagnet (6, 7) even though the armature element is not yet in its desired end position; and the control unit is configured to raise the control signal back to its starting value at the start of the raising procedure after an interruption of the control signal of the electromagnet (6, 7) after the armature element has contacted the abutment for the first time after a raising from the seat plate and/or when the stroke of the armature element reaches a reversal point or is close thereto in time, with the control unit being configured to transmit the control signal in a binary manner, that is only to transmit the control signal states On and Off. a seat plate having a passage opening that extends through the seat plate; an armature element that is placeable onto the seat plate to close the passage opening; a spring element that urges the armature element in the direction of the seat plate to close the passage opening; an electromagnet (6, 7) that is configured to apply a force onto the armature element to raise the armature element from the seat plate; and an abutment for bounding a stroke (x) of the armature element in a state raised from the seat plate, wherein a control unit that is configured to reduce a control signal of the electromagnet (6, 7) to raise the armature element from the seat plate before the armature element contacts the abutment for the first time after a raising from the seat plate., characterized in that the control unit is configured to interrupt the control signal of the electromagnet (6, 7) even though the armature element is not yet in its desired end position; and the control unit is configured to raise the control signal back to its starting value at the start of the raising procedure after an interruption of the control signal of the electromagnet (6, 7) after the armature element has contacted the abutment for the first time after a raising from the seat plate and/or when the stroke of the armature element reaches a reversal point or is close thereto in time, with the control unit being configured to transmit the control signal in a binary manner, that is only to transmit the control signal states On and Off.
An information processing apparatus comprising: a first memory being a flash memory and storing a first program; first processing means; a second memory being a read-only memory and storing an alteration verification program; and second processing means that executes the alteration verification program, and performs alteration verification on the first program that is to be executed by the first processing means; wherein the first processing means executes the first program which has been determined by the second processing means to be not altered, characterized in that the first processing means switches the second processing means from executing the alteration verification program stored in the second memory to executing another processing program stored in a third memory being a volatile storage medium, by switching a reset vector of the second processing means from an address area of the second memory to an address area of the third memory according to information stored within the first program which has been determined by the second processing means to be not altered, the reset vector being an address value that is referred to after a reset state of the second processing means is cancelled. a first memory being a flash memory and storing a first program; first processing means; a second memory being a read-only memory and storing an alteration verification program; and second processing means that executes the alteration verification program, and performs alteration verification on the first program that is to be executed by the first processing means; wherein the first processing means executes the first program which has been determined by the second processing means to be not altered, characterized in that the first processing means switches the second processing means from executing the alteration verification program stored in the second memory to executing another processing program stored in a third memory being a volatile storage medium, by switching a reset vector of the second processing means from an address area of the second memory to an address area of the third memory according to information stored within the first program which has been determined by the second processing means to be not altered, the reset vector being an address value that is referred to after a reset state of the second processing means is cancelled.
A method for producing an optically anisotropic film comprising: a step of forming an overcoat layer comprising a photoreactive compound having three or more photoreactive groups on one side of an optically anisotropic layer comprising a polymerizable liquid crystal compound satisfying Equation 1 below; and a step of aging the overcoat layer at a temperature of 100°C or higher after the step of forming the overcoat layer: R 450 / R 550 < R 650 / R 550, wherein, R (λ) is an in-plane retardation of a liquid crystal layer for light having a wavelength of λ nm, wherein the liquid crystal layer comprises the polymerizable liquid crystal compound oriented in a planar state. a step of forming an overcoat layer comprising a photoreactive compound having three or more photoreactive groups on one side of an optically anisotropic layer comprising a polymerizable liquid crystal compound satisfying Equation 1 below; and a step of aging the overcoat layer at a temperature of 100°C or higher after the step of forming the overcoat layer: R 450 / R 550 < R 650 / R 550, wherein, R (λ) is an in-plane retardation of a liquid crystal layer for light having a wavelength of λ nm, wherein the liquid crystal layer comprises the polymerizable liquid crystal compound oriented in a planar state.
A scintillator for detecting neutrons and/or gamma photons, characterised in that it comprises a structure consisting of two undoped plastic materials (A, B) for detecting neutrons and which contain different fluorescent complexes, the first plastic material containing at least one fluorescent complex able to produce a fluorescence light having a first relaxation time and the second plastic material containing at least one fluorescent complex able to produce a fluorescence light having a second relaxation time higher than the first relaxation time, both plastic materials being arranged: - either as a stack of successive layers, a layer of one of both plastic materials (A, B) alternating with a layer of the other plastic material (B, A), each layer of plastic material having a thickness substantially between 100μm and 500μm, - or as a set of micro-beads (b) made of one of both plastic materials (A, B) inserted in a block made of the other plastic material (B, A), the micro-beads (b) inserted in the block defining a cube lattice, the diameter of the micro-beads (b) being substantially between 100μm and 500μm and two neighbouring micro-beads being separated by a distance substantially between 100μm and 500μm. - either as a stack of successive layers, a layer of one of both plastic materials (A, B) alternating with a layer of the other plastic material (B, A), each layer of plastic material having a thickness substantially between 100μm and 500μm, - or as a set of micro-beads (b) made of one of both plastic materials (A, B) inserted in a block made of the other plastic material (B, A), the micro-beads (b) inserted in the block defining a cube lattice, the diameter of the micro-beads (b) being substantially between 100μm and 500μm and two neighbouring micro-beads being separated by a distance substantially between 100μm and 500μm.
A method of receiving a Physical Downlink Control Channel, PDCCH, performed by a user equipment, UE, for Remaining Minimum System Information, RMSI, in a wireless communication system, comprising: receiving an SS/PBCH block including an synchronization signal, SS, and a Physical Broadcasting Channel, PBCH; obtaining information related to a Control resource set, CORESET, for the PDCCH via the PBCH; and receiving the PDCCH within the CORESET based on the information, wherein the information includes an offset for informing the UE of a frequency position of a lowest resource block, RB, of the CORESET based on a frequency position of a lowest RB of the SS/PBCH, wherein available values for the offset are defined based on subcarrier spacing of the SS/PBCH block and a minimum channel bandwidth, and wherein an index of a frame including a first start slot of an occurrence of a monitoring window for the CORESET related to the SS/PBCH block when it has an index #2n is different from an index of a frame including a second starting slot of a consecutive occurrence of the monitoring window of the CORESET related to the SS/PBCH block when it has an index #2n+1, wherein the CORESETs of the two different SS/PBCH blocks are transmitted periodically and alternating. receiving an SS/PBCH block including an synchronization signal, SS, and a Physical Broadcasting Channel, PBCH; obtaining information related to a Control resource set, CORESET, for the PDCCH via the PBCH; and receiving the PDCCH within the CORESET based on the information, wherein the information includes an offset for informing the UE of a frequency position of a lowest resource block, RB, of the CORESET based on a frequency position of a lowest RB of the SS/PBCH, wherein available values for the offset are defined based on subcarrier spacing of the SS/PBCH block and a minimum channel bandwidth, and wherein an index of a frame including a first start slot of an occurrence of a monitoring window for the CORESET related to the SS/PBCH block when it has an index #2n is different from an index of a frame including a second starting slot of a consecutive occurrence of the monitoring window of the CORESET related to the SS/PBCH block when it has an index #2n+1, wherein the CORESETs of the two different SS/PBCH blocks are transmitted periodically and alternating.
An arrangement for the fabrication of cables with cable processing devices arranged in parallel alongside one another, wherein the cable processing devices each comprise the following components: - at least one processing station (2, 3, 4, 5, 6) for processing cable ends of a cable, - a cable processing device running along a machine longitudinal axis (x) for transporting the cable in the direction of the machine longitudinal axis (x) to the at least one processing station (2, 3, 4, 5, 6) and - a central control unit for operating the cable processing device which is arranged laterally on the cable processing device relative to the machine longitudinal axis (x), wherein the cable processing devices arranged in parallel alongside one another exhibit at least one group with two adjacent cable processing devices (1, 1', 1", 1"') and wherein the central operating units (11, 11') of the two adjacent cable processing devices (1, 1', 1", 1"') which form a group are positioned in such a manner that the aforementioned central operating units (11, 11') can be operated from a joint accessible region lying between the two adjacent cable processing devices (1, 1', 1", 1"') which form a group, characterized in that the cable processing devices (1, 1', 1", 1"') each have cable transport operating units (12, 12') arranged on one side relative to the machine longitudinal axis (x) and/or delivery trays (13, 13') arranged on one side relative to the machine longitudinal axis (x) for receiving processed cables, wherein the cable transport operating units (12, 12') or else the delivery trays (13, 13') of the two adjacent cable processing devices (1, 1', 1", 1"') which form a group are arranged facing one another. - at least one processing station (2, 3, 4, 5, 6) for processing cable ends of a cable, - a cable processing device running along a machine longitudinal axis (x) for transporting the cable in the direction of the machine longitudinal axis (x) to the at least one processing station (2, 3, 4, 5, 6) and - a central control unit for operating the cable processing device which is arranged laterally on the cable processing device relative to the machine longitudinal axis (x),
Method for filtering a communication, the communication, referred to as the original communication, being generated by a calling device to a called device, and identified by an uncertified calling identity and by at least one certified calling identity, said method comprising, when said uncertified calling identity and said at least one certified calling identity are different, after a duration (Tg) of at least one ring of the called device has expired, and if no message (C_end) indicating the end of said original communication is detected, presenting said original communication to said called device with at least one calling identity from among said uncertified calling identity and said at least one certified calling identity, said original communication not being presented to the called device before said expiry, the method being characterized in that it comprises, when said uncertified calling identity and said at least one certified calling identity are different: - presenting, to said called device, before said expiry, an anonymized provisional communication (Cp) corresponding to said original communication but in which neither of said certified calling identity and uncertified calling identity is presented, at least one of said calling identities (NDI, NDS) being replaced with a masked calling identity (NDI-m, NDS-m) of the same type, or presented as an unavailable identity (NDI-d, NDS-d) of the same type. - presenting, to said called device, before said expiry, an anonymized provisional communication (Cp) corresponding to said original communication but in which neither of said certified calling identity and uncertified calling identity is presented, at least one of said calling identities (NDI, NDS) being replaced with a masked calling identity (NDI-m, NDS-m) of the same type, or presented as an unavailable identity (NDI-d, NDS-d) of the same type.
A wearable electronic device comprising: a first part including a first sound output module; a second part including a second sound output module; a third part disposed between the first part and the second part; a flexible first connection unit configured to connect a first end of the first part and a first end of the third part; a flexible second connection unit configured to connect a first end of the second part and a second end of the third part; a wireless communication module configured to connect to an external device wirelessly; at least one sensor configured to detect a connecting operation or a separating operation between a second end of the first part and a second end of the second part; and a processor configured to respond to detection of at least part of a connecting operation or a separating operation between the second end of the first part and the second end of the second part, characterised in that the processor is configured to perform a switching operation between a first state of being paired with an external device through the wireless communication module and a second state of transmitting/receiving sound data to/from the external device through the wireless communication module when the second end of the first part and the second end of the second part are separated or connected, wherein the processor is configured to switch from the first state into the second state during the separating operation and is configured to switch from the second state into the first state during the connecting operation. a first part including a first sound output module; a second part including a second sound output module; a third part disposed between the first part and the second part; a flexible first connection unit configured to connect a first end of the first part and a first end of the third part; a flexible second connection unit configured to connect a first end of the second part and a second end of the third part; a wireless communication module configured to connect to an external device wirelessly; at least one sensor configured to detect a connecting operation or a separating operation between a second end of the first part and a second end of the second part; and a processor configured to respond to detection of at least part of a connecting operation or a separating operation between the second end of the first part and the second end of the second part, characterised in that the processor is configured to perform a switching operation between a first state of being paired with an external device through the wireless communication module and a second state of transmitting/receiving sound data to/from the external device through the wireless communication module when the second end of the first part and the second end of the second part are separated or connected, wherein the processor is configured to switch from the first state into the second state during the separating operation and is configured to switch from the second state into the first state during the connecting operation.
An air-cooled condenser comprising: - a condenser coil forming a portion of a condenser loop circulating a first fluid being a hot high pressure vapor; - a cooling coil forming a portion of a heat transfer loop circulating a second fluid; wherein the condenser loop is adapted for connection to a compressor and circulates the first fluid from the compressor to the condenser coil; and wherein the heat transfer loop is adapted for connection to a heat transfer device and circulates the second fluid from the heat transfer device to the cooling coil, heat being absorbed by the second fluid from the heat transfer device, and removed from the second fluid by airflow through the cooling coil, the condenser being characterized by the fact that the cooling coil is structurally independent from the condenser coil. - a condenser coil forming a portion of a condenser loop circulating a first fluid being a hot high pressure vapor; - a cooling coil forming a portion of a heat transfer loop circulating a second fluid; wherein the condenser loop is adapted for connection to a compressor and circulates the first fluid from the compressor to the condenser coil; and wherein the heat transfer loop is adapted for connection to a heat transfer device and circulates the second fluid from the heat transfer device to the cooling coil, heat being absorbed by the second fluid from the heat transfer device, and removed from the second fluid by airflow through the cooling coil, the condenser being characterized by the fact that the cooling coil is structurally independent from the condenser coil.
A locking device (100, 200) for a gate comprising: - a fitting having at least a first surface and a second surface, said first surface and said second surface being arranged opposite to each other, said fitting is provided with a first through hole arranged from said first surface to said second surface; and - a locking member comprising at least one threaded portion (21, 21a, 21b) and a handle portion, said locking member being at least partially insertable into said first through hole from said second surface; - at least one fixating member (30, 30a, 30b) comprising a head (31, 31a) and a body (32, 32a, 32b) being catenated by a bridging portion (35, 35a), said at least one fixating member (30, 30a, 30b) being insertable into said first through hole from said first surface until said body (32, 32a, 32b) is constrained by an abutment surface; wherein said body (32, 32a, 32b) is adapted to engage with said at least one threaded portion (21, 21a, 21b) such that said body (32, 32a, 32b) is at least partially surrounded by said fitting in a circumferential direction of said body (32, 32a, 32b); wherein, when said body (32, 32a, 32b) is engaged with said at least one threaded portion (21, 21a, 21b) and constrained by the abutment surface, said head (31, 31a) is removable from said body (32, 32a, 32b) by shearing of said bridging portion (35, 35a). - a fitting having at least a first surface and a second surface, said first surface and said second surface being arranged opposite to each other, said fitting is provided with a first through hole arranged from said first surface to said second surface; and - a locking member comprising at least one threaded portion (21, 21a, 21b) and a handle portion, said locking member being at least partially insertable into said first through hole from said second surface; - at least one fixating member (30, 30a, 30b) comprising a head (31, 31a) and a body (32, 32a, 32b) being catenated by a bridging portion (35, 35a), said at least one fixating member (30, 30a, 30b) being insertable into said first through hole from said first surface until said body (32, 32a, 32b) is constrained by an abutment surface;
A composition for treating a substrate comprising: a) 10 to 25% by weight of a surfactant system comprising an anionic and a dianionic surfactant where said anionic surfactant is selected from the group of alkyl alkoxylated sulfates and said dianionic surfactant is chosen from the group of diphenyl oxide disulfonate having a carbon chain length ranging from C6 to C18; b) 1 to 15% by weight of a fat solubilizing oil, having Hansen solubility parameter (δHSP) that ranges from 14 to 22 MPa 0.5 (at 25°C), and wherein the Hansen polar component (δP) is in the range of 0.5 to 10 MPa 0.5 (at 25°C), the dispersion component (δH) is in the range of 3 to 10 MPa 0.5 (at 25°C) and the hydrogen bond component (δD) is in the range of 13 to 18 MPa 0.5 (at 25°C); c) 2 to 12% by weight of hydrogen peroxide: and d) water. a) 10 to 25% by weight of a surfactant system comprising an anionic and a dianionic surfactant where said anionic surfactant is selected from the group of alkyl alkoxylated sulfates and said dianionic surfactant is chosen from the group of diphenyl oxide disulfonate having a carbon chain length ranging from C6 to C18; b) 1 to 15% by weight of a fat solubilizing oil, having Hansen solubility parameter (δHSP) that ranges from 14 to 22 MPa 0.5 (at 25°C), and wherein the Hansen polar component (δP) is in the range of 0.5 to 10 MPa 0.5 (at 25°C), the dispersion component (δH) is in the range of 3 to 10 MPa 0.5 (at 25°C) and the hydrogen bond component (δD) is in the range of 13 to 18 MPa 0.5 (at 25°C); c) 2 to 12% by weight of hydrogen peroxide: and d) water.